mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal comprising: a body , the body formed of a first material being an electrically conductive material, the body having a longitudinal insertion axis (L) and having a wire securing portion, a connection section along an end portion of the terminal and a contacting section extending away from the connection section , the contacting section having a flexible contact beam and a stationary contact beam , the flexible contact beam cantilevered from a first point , the stationary contact beam opposes the flexible contact beam and the wire securing portion having a wing; and a covering , the covering formed of a second material, the tensile strength of the second material being greater than the tensile strength of the first material, the covering having a peripheral contour, the peripheral contour is divided by a middle wall , the middle wall defining an upper section and a lower section , the upper section including a locking arm that extends toward the connection section , the lower section including a stiffening beam , the stiffening beam formed from the middle wall and cantilevered from a second point , wherein the stiffening beam engages the flexible contact beam at a third point , the second point is disposed between the first point and the third point and wherein the body is supported by the lower section , wherein a first securing tab is formed on the body and a second securing tab is formed on the covering and the tabs are disposed in a slot formed on the body . a body , the body formed of a first material being an electrically conductive material, the body having a longitudinal insertion axis (L) and having a wire securing portion, a connection section along an end portion of the terminal and a contacting section extending away from the connection section , the contacting section having a flexible contact beam and a stationary contact beam , the flexible contact beam cantilevered from a first point , the stationary contact beam opposes the flexible contact beam and the wire securing portion having a wing; and a covering , the covering formed of a second material, the tensile strength of the second material being greater than the tensile strength of the first material, the covering having a peripheral contour, the peripheral contour is divided by a middle wall , the middle wall defining an upper section and a lower section , the upper section including a locking arm that extends toward the connection section , the lower section including a stiffening beam , the stiffening beam formed from the middle wall and cantilevered from a second point , wherein the stiffening beam engages the flexible contact beam at a third point , the second point is disposed between the first point and the third point and wherein the body is supported by the lower section , wherein a first securing tab is formed on the body and a second securing tab is formed on the covering and the tabs are disposed in a slot formed on the body .
A method for producing sugar solution by repeating a sugar solution production process comprising the following steps to , wherein a wash solution obtained in step by washing an ultrafiltration membrane and /or a microfiltration membrane after step is used for step of subsequent sugar solution production processes: step : preparing slurry of pretreated cellulose-containing biomass; step : hydrolyzing the slurry of pretreated cellulose-containing biomass in step using cellulase from filamentous fungi; step : subjecting the hydrolyzate of step to solid-liquid separation into a solution component and a hydrolysis residue, filtering the solution component first through a microfiltration membrane and then through an ultrafiltration membrane and recovering the cellulase from filamentous fungi as a non-permeate, and recovering the sugar solution as a permeate; and step : washing the separation membranes used in step and recovering a wash solution containing a polymer component which does not pass through one or both of the microfiltration and the ultrafiltration membrane. step : preparing slurry of pretreated cellulose-containing biomass; step : hydrolyzing the slurry of pretreated cellulose-containing biomass in step using cellulase from filamentous fungi; step : subjecting the hydrolyzate of step to solid-liquid separation into a solution component and a hydrolysis residue, filtering the solution component first through a microfiltration membrane and then through an ultrafiltration membrane and recovering the cellulase from filamentous fungi as a non-permeate, and recovering the sugar solution as a permeate; and step : washing the separation membranes used in step and recovering a wash solution containing a polymer component which does not pass through one or both of the microfiltration and the ultrafiltration membrane.
A method of particle detection including; subjecting a first air sample (F) from an air volume including smoke particles and dust particles to particle reduction, by a particle reduction means, wherein the particle reduction means acts as a dust reduction means, such that subjecting the first air sample (F) to particle reduction results in first particles in the first air sample including smoke particles and substantially excluding dust particles; analysing the first air sample (F) from the air volume and determining a level (M) of the first particles in the first air sample; analysing a second air sample (G) from the air volume and determining a level (L) of second particles in the second air sample, wherein the second particles include smoke particles and dust particles; processing the level of first particles in the first air sample in accordance with at least one predetermined first alarm level (T1); in the event that the level of first particles is above the first predetermined alarm level: determining a relative difference between the level of first particles in the first air sample and level of second particles in the second air sample and comparing the relative difference with at least one second alarm threshold; such that in the event that one second alarm threshold is met: performing an action. subjecting a first air sample (F) from an air volume including smoke particles and dust particles to particle reduction, by a particle reduction means, wherein the particle reduction means acts as a dust reduction means, such that subjecting the first air sample (F) to particle reduction results in first particles in the first air sample including smoke particles and substantially excluding dust particles; analysing the first air sample (F) from the air volume and determining a level (M) of the first particles in the first air sample; analysing a second air sample (G) from the air volume and determining a level (L) of second particles in the second air sample, wherein the second particles include smoke particles and dust particles; processing the level of first particles in the first air sample in accordance with at least one predetermined first alarm level (T1); in the event that the level of first particles is above the first predetermined alarm level: determining a relative difference between the level of first particles in the first air sample and level of second particles in the second air sample and comparing the relative difference with at least one second alarm threshold; such that in the event that one second alarm threshold is met: performing an action.
A device comprising: a drive unit configured to drive a door ; a transmission mechanism that transmits a driving force of the drive unit to the door ; and a state determination device (20; 50), comprising: a first acquisition unit (21; 51) obtaining driving force information regarding the driving force of the drive unit ; a second acquisition unit (22; 52) obtaining a load on the transmission mechanism ; and a determination unit (24; 54) determining whether there is deterioration of a transmission path of the driving force from the drive unit to the door based on the driving force information obtained by the first acquisition unit (21; 51) and the load obtained by the second acquisition unit (22; 52). a drive unit configured to drive a door ; a transmission mechanism that transmits a driving force of the drive unit to the door ; and a state determination device (20; 50), comprising: a first acquisition unit (21; 51) obtaining driving force information regarding the driving force of the drive unit ; a second acquisition unit (22; 52) obtaining a load on the transmission mechanism ; and a determination unit (24; 54) determining whether there is deterioration of a transmission path of the driving force from the drive unit to the door based on the driving force information obtained by the first acquisition unit (21; 51) and the load obtained by the second acquisition unit (22; 52). a first acquisition unit (21; 51) obtaining driving force information regarding the driving force of the drive unit ; a second acquisition unit (22; 52) obtaining a load on the transmission mechanism ; and a determination unit (24; 54) determining whether there is deterioration of a transmission path of the driving force from the drive unit to the door based on the driving force information obtained by the first acquisition unit (21; 51) and the load obtained by the second acquisition unit (22; 52).
A riding lawn mower comprising: a running vehicle body which comprises running wheels and to which a mower device can be connected; an engine mounted on the running vehicle body ; a radiator ; a radiator fan arranged near the radiator for blowing air to the radiator ; and an engine fan for blowing air to the engine , characterized in that the engine fan is arranged above the engine , and the radiator fan is a provided on a side of the engine facing in a direction horizontally orthogonal to a front and rear direction of the riding lawn mower . a running vehicle body which comprises running wheels and to which a mower device can be connected; an engine mounted on the running vehicle body ; a radiator ; a radiator fan arranged near the radiator for blowing air to the radiator ; and an engine fan for blowing air to the engine , characterized in that the engine fan is arranged above the engine , and the radiator fan is a provided on a side of the engine facing in a direction horizontally orthogonal to a front and rear direction of the riding lawn mower .
A work head comprising: a head main body ; multiple movable bodies held to be approachable to or separatable from each other by the head main body ; and an air passage formed, being open toward a space between the multiple movable bodies , on a lower face of the head main body , wherein the work head being configured to grip a holding tool , being configured to hold a component, by causing the multiple movable bodies to approach the holding tool to be communicated with the air passage , so that the holding tool holds the component by air supplied thereto via the air passage and characterized in that the work head further being configured to fix two or more claws to two or more movable bodies among the multiple movable bodies via a fixing mechanism built in the two or more movable bodies , so that the component is gripped by the two or more claws . a head main body ; multiple movable bodies held to be approachable to or separatable from each other by the head main body ; and an air passage formed, being open toward a space between the multiple movable bodies , on a lower face of the head main body , wherein the work head being configured to grip a holding tool , being configured to hold a component, by causing the multiple movable bodies to approach the holding tool to be communicated with the air passage , so that the holding tool holds the component by air supplied thereto via the air passage and characterized in that the work head further being configured to fix two or more claws to two or more movable bodies among the multiple movable bodies via a fixing mechanism built in the two or more movable bodies , so that the component is gripped by the two or more claws .
An apparatus for generating a bimodal stimulus for the improvement of symptoms of a neurological disorder of the auditory system, comprising a processing unit , an audio stimulation unit and a somatosensory stimulation unit; wherein said processing unit comprises: a processor operable to receive an audio signal as an input and generate a plurality of actuation signals representative of the audio signal, the audio signal comprising a first component comprising a broadband or white noise component and a second component comprising a plurality of complex tone bursts; analyse the received audio signal to generate a binaural modified audio signal representative of the audio signal, the modified audio signal configured to promote a sense of relaxation in a subject; deliver the plurality of actuation signals to the somatosensory stimulation unit, the somatosensory stimulation unit comprising an array of stimulators each of which is independently actuatable in response to the plurality of actuation signals to provide a somatosensory output corresponding to the received audio input; and deliver the modified audio signal to the audio stimulation unit comprising audio transducers, wherein the modified audio signal is a stereo audio signal having a -3dB frequency response of 20Hz to 20kHz and a dynamic range of >90dB. a processor operable to receive an audio signal as an input and generate a plurality of actuation signals representative of the audio signal, the audio signal comprising a first component comprising a broadband or white noise component and a second component comprising a plurality of complex tone bursts; analyse the received audio signal to generate a binaural modified audio signal representative of the audio signal, the modified audio signal configured to promote a sense of relaxation in a subject; deliver the plurality of actuation signals to the somatosensory stimulation unit, the somatosensory stimulation unit comprising an array of stimulators each of which is independently actuatable in response to the plurality of actuation signals to provide a somatosensory output corresponding to the received audio input; and deliver the modified audio signal to the audio stimulation unit comprising audio transducers, wherein the modified audio signal is a stereo audio signal having a -3dB frequency response of 20Hz to 20kHz and a dynamic range of >90dB.
Use of an injectable solution for preserving cells from placental blood, bone marrow and peripheral blood, said injectable solution comprising a physiological solution of sodium chloride, potassium chloride, magnesium sulfate, sodium bicarbonate, vitamin E, vitamin A, vitamin C, lactate, and human albumin and being adapted so that the cells to be preserved can be transplanted to a patient without prior rinsing.
An implantable pacing device , with a housing, wherein the pacing device comprises a processor and a receiver electrically connected to the processor or integrated therein, wherein the processor is adapted to - deliver signals for electric stimulation of a patient's heart (H) according to at least one first stimulation mode and - deliver signals for electric stimulation of the patient's heart (H) according to an anti-tachycardiac pacing mode (ATP mode), wherein the ATP mode is initially deactivated and/or is to be upgraded, wherein the receiver is adapted to receive an ATP confirmation signal transmitted by an external device or produced by operation of an actuator accommodated at the housing of the pacing device during initialization and/or at a pre-defined service date, wherein the processor is adapted to upgrade the ATP mode and/or to activate the ATP mode only if the ATP confirmation signal comprises a pre-defined confirmation information, and wherein the pre-defined confirmation information comprises at least one parameter of an additional antitachycardia device type, wherein the pacing device and the additional antitachycardia device are adapted to be implanted into the same patient. wherein the pacing device comprises a processor and a receiver electrically connected to the processor or integrated therein, wherein the processor is adapted to - deliver signals for electric stimulation of a patient's heart (H) according to at least one first stimulation mode and - deliver signals for electric stimulation of the patient's heart (H) according to an anti-tachycardiac pacing mode (ATP mode), wherein the ATP mode is initially deactivated and/or is to be upgraded, - deliver signals for electric stimulation of a patient's heart (H) according to at least one first stimulation mode and - deliver signals for electric stimulation of the patient's heart (H) according to an anti-tachycardiac pacing mode (ATP mode), wherein the ATP mode is initially deactivated and/or is to be upgraded, wherein the receiver is adapted to receive an ATP confirmation signal transmitted by an external device or produced by operation of an actuator accommodated at the housing of the pacing device during initialization and/or at a pre-defined service date, wherein the processor is adapted to upgrade the ATP mode and/or to activate the ATP mode only if the ATP confirmation signal comprises a pre-defined confirmation information, and wherein the pre-defined confirmation information comprises at least one parameter of an additional antitachycardia device type, wherein the pacing device and the additional antitachycardia device are adapted to be implanted into the same patient.
A quasi-self-focusing high strength large power ultrasonic transducer comprising a backing and piezo-electric crystal sheets , wherein the backing has a double-layer structure and there is an air cavity between the layers; at least four piezo-electric crystal sheets are adhered tightly on the inside focusing face of the backing ; a protective layer is covered on the surfaces of the piezo-electric crystal sheets ; the number of pieces of said piezo-electric crystal sheets is in a range of 4 to 24; the piezo-electric crystal sheets have similar electroacoustical characteristics, a radius of curvature at all points identical to that of the corresponding points of the inside focusing face of the backing and are adhered tightly on the inside focusing face of the backing ; wherein said backing is made of material with low loss and high acoustic resistance; and the inside focusing face of the backing is a concave spherical zone surface; characterized in that the thickness of the inner layer of the backing is an integral multiple of 1/2 of the wavelength λ of a sound wave in the backing material under the specific working frequency emitted by the piezo-electric crystal sheets . wherein said backing is made of material with low loss and high acoustic resistance; and the inside focusing face of the backing is a concave spherical zone surface; characterized in that the thickness of the inner layer of the backing is an integral multiple of 1/2 of the wavelength λ of a sound wave in the backing material under the specific working frequency emitted by the piezo-electric crystal sheets .
A noise reduction system for actively compensating background noise in a passenger transport area of a vehicle, comprising a control unit , at least one microphone for detecting a background noise, at least one sound generator for generating antinoise and a position detection unit for detecting a position and/or orientation of the head of a user in the passenger transport area, wherein the control unit - is coupled to the microphone on the input side and is configured to receive a background noise signal, - is coupled to the position detection unit on the input side, is configured to receive position data and to determine a position signal from the position data, the position signal indicating the position and/or orientation of the head of the user relative to the position detection unit, - is configured to generate an antinoise signal from the background noise signal and the position signal, - is coupled to the sound generator on the output side and is configured to provide the antinoise signal, wherein the sound generator is configured to generate antinoise from the antinoise signal such that, by superposition of the antinoise in a quiet zone within the passenger transport area, which antinoise in phase opposition with the background noise, active reduction of the background noise can be achieved, wherein the position detection unit is a 3D camera arrangement and the camera arrangement comprises at least one first and one second camera , characterized in that the 3D camera arrangement forms a spatially enclosed structural unit together with the at least one microphone , the at least one sound generator and the control unit , wherein a stereo base (B) between the first and the second camera is projecting downwards. - is coupled to the microphone on the input side and is configured to receive a background noise signal, - is coupled to the position detection unit on the input side, is configured to receive position data and to determine a position signal from the position data, the position signal indicating the position and/or orientation of the head of the user relative to the position detection unit, - is configured to generate an antinoise signal from the background noise signal and the position signal, - is coupled to the sound generator on the output side and is configured to provide the antinoise signal,
A process for producing a medical device which is coated with a thin film based on carbon, comprising the steps of: - positioning a medical device to be coated inside a processing chamber , in which there is provided a target element of carbon; - reducing the pressure in the processing chamber until reaching a residual pressure between 10 -4 Pa and 10 -3 Pa; - introducing an inert gas in the processing chamber; - starting in the processing chamber a physical vapour deposition step in which a group of ions of said inert gas is formed and is accelerated against the target element so as to cause the projection of carbon atoms from the target element towards the medical device; - maintaining the physical vapour deposition step for a predefined time so as to deposit on the medical device a coating of a thin film of turbostratic carbon having a thickness between 100 nm and 1000 nm; - venting the chamber and removing the coated medical device; and characterised in that , at the end of the physical vapour deposition step and before the venting step, the pressure is brought to a value less than 10 -3 Pa and there is subsequently introduced into the processing chamber a suitable quantity of nitrogen in order to bring the pressure to a value greater than 5 x 10 -3 Pa. - positioning a medical device to be coated inside a processing chamber , in which there is provided a target element of carbon; - reducing the pressure in the processing chamber until reaching a residual pressure between 10 -4 Pa and 10 -3 Pa; - introducing an inert gas in the processing chamber; - starting in the processing chamber a physical vapour deposition step in which a group of ions of said inert gas is formed and is accelerated against the target element so as to cause the projection of carbon atoms from the target element towards the medical device; - maintaining the physical vapour deposition step for a predefined time so as to deposit on the medical device a coating of a thin film of turbostratic carbon having a thickness between 100 nm and 1000 nm; - venting the chamber and removing the coated medical device; and