mhurhangee/ep-ind-claims huggingface dataset:
Dialysis treatment arrangement for controlling and/or regulating a dialysis device, comprising: - a dialysis device for carrying out a medical dialysis treatment, - a patient supporting device for supporting a patient with an arrangement for carrying out a bio-impedance measurement on a patient's body, wherein this arrangement comprises - a device (6a, 7a, 8a, 9a) for coupling in a measurement signal into the patient's body and - a device (6b, 7b, 8b, 9b) for decoupling an electrical measurement variable, generated thereby in the patient's body, out of the patient's body, and an interface for connection to the dialysis device wherein the patient supporting device comprises a device for determining the patient's size with pressure sensors and/or pressure sensor fields, which are arranged in the region of patient supporting surfaces of the patient supporting device, and - an evaluation arrangement for evaluating the electrical measurement variable which has been decoupled by the arrangement for carrying out a bio-impedance measurement, taking into account the determined patient's size, and for transmitting the data correlated with the evaluated electrical measurement variable to the dialysis device via the interface, wherein the dialysis device is configured to be controlled and/or regulated by the data correlated with the evaluated electrical measurement variable. - a dialysis device for carrying out a medical dialysis treatment, - a patient supporting device for supporting a patient with an arrangement for carrying out a bio-impedance measurement on a patient's body, wherein this arrangement comprises - a device (6a, 7a, 8a, 9a) for coupling in a measurement signal into the patient's body and - a device (6b, 7b, 8b, 9b) for decoupling an electrical measurement variable, generated thereby in the patient's body, out of the patient's body, and an interface for connection to the dialysis device wherein the patient supporting device comprises a device for determining the patient's size with pressure sensors and/or pressure sensor fields, which are arranged in the region of patient supporting surfaces of the patient supporting device, and - an evaluation arrangement for evaluating the electrical measurement variable which has been decoupled by the arrangement for carrying out a bio-impedance measurement, taking into account the determined patient's size, and for transmitting the data correlated with the evaluated electrical measurement variable to the dialysis device via the interface, wherein the dialysis device is configured to be controlled and/or regulated by the data correlated with the evaluated electrical measurement variable.
A sensorized glove, in particular designed for ergonomic analysis, including: - an inner glove, which comprises a plurality of extensometer sensors configured for detecting relative movements between parts of a worker's hand; and - an outer glove, which comprises a plurality of pressure sensors distributed over a palmar surface and configured for detecting the pressure exerted in corresponding areas of said palmar surface, wherein each pressure sensor forms part of a sensor network having a layout such as to enable application of the individual sensors in predetermined areas of the hand, wherein the sensor network includes a plurality of electrical connections, connected to which are the pressure sensors and wherein the electrical connections all lead to an interface unit configured to enable exchange of data with a processing unit configured to receive data from the sensorized glove, wherein said inner glove includes a dorsal surface and a palmar surface and comprises: - a first plurality of pockets inside the inner glove, Housed inside the pockets are the corresponding linear extensometers; and - a second plurality of pockets on the outer surface of the inner glove, which are substantially U-shaped and house corresponding linear extensometers configured for detecting relative movements of parts of the hand in a palmar plane, and wherein said outer glove includes a dorsal surface and a palmar surface and comprises a third plurality of pockets on said palmar surface configured for housing a corresponding pressure sensor. - an inner glove, which comprises a plurality of extensometer sensors configured for detecting relative movements between parts of a worker's hand; and - an outer glove, which comprises a plurality of pressure sensors distributed over a palmar surface and configured for detecting the pressure exerted in corresponding areas of said palmar surface, wherein each pressure sensor forms part of a sensor network having a layout such as to enable application of the individual sensors in predetermined areas of the hand, wherein the sensor network includes a plurality of electrical connections, connected to which are the pressure sensors and wherein the electrical connections all lead to an interface unit configured to enable exchange of data with a processing unit configured to receive data from the sensorized glove, - a first plurality of pockets inside the inner glove, Housed inside the pockets are the corresponding linear extensometers; and - a second plurality of pockets on the outer surface of the inner glove, which are substantially U-shaped and house corresponding linear extensometers configured for detecting relative movements of parts of the hand in a palmar plane, and wherein said outer glove includes a dorsal surface and a palmar surface and comprises a third plurality of pockets on said palmar surface configured for housing a corresponding pressure sensor.
Butterfly valve housing for a butterfly valve having a closure element which is rotatably supported in the housing, containing an integral housing made of plastics material, wherein the housing has an annular member, two flange connection plates which are arranged at the end face and a reinforcement structure, wherein the annular member has an inner diameter which forms a sealing portion and an outer diameter, wherein the outer diameter of the annular member is smaller than the outer diameter of the flange connection plates, wherein the reinforcement structure is arranged on the outer diameter of the annular member and between the two flange connection plates, and metal inserts, wherein the inserts are arranged between the flange connection plates along the outer circumference of the annular member, wherein receiving openings are arranged in the housing between the two flange connection plates and between the reinforcement structure, characterized in that the receiving openings are directed from the outer circumference in the direction of the vertical centre axis in which the inserts can be inserted into the housing, wherein the inserts are arranged in a positive-locking manner in the receiving openings.
Apparatus for monitoring a trans-membrane ionic current of a biological cell comprising: - a passage through which electromagnetic radiation passes to interact with said cell; the apparatus being characterised in that it further comprises: - electromagnetic radiation phase measuring means for receiving said electromagnetic radiation having passed through the cell and for providing temporal measurements of a phase of said electromagnetic radiation, and calculating means configured to determine the ionic current using the following formula: I t = V 0 ε d dt φ 0 φ t 1 / s − r wherein V 0 is an initial cell volume before ionic current; ε is a constant representing the volume variation associated with the net charge movement through the cell membrane expressed in millilitres per Coulomb; s is a parameter to take into account cell processes inducing volume variations leading to refractive index charges by mechanisms other than dilution or concentration of the intracellular content by ions and water fluxes, s being one of the two values 0 and 1, and s = 1 corresponding to a simple dilution or concentration of the cell content; φ ( t) is the phase signal at the time t; and r is a parameter related to the cell deformation along a direction of the probing beam, associated with the volume variation. - a passage through which electromagnetic radiation passes to interact with said cell; - electromagnetic radiation phase measuring means for receiving said electromagnetic radiation having passed through the cell and for providing temporal measurements of a phase of said electromagnetic radiation, and calculating means configured to determine the ionic current using the following formula: I t = V 0 ε d dt φ 0 φ t 1 / s − r wherein V 0 is an initial cell volume before ionic current; ε is a constant representing the volume variation associated with the net charge movement through the cell membrane expressed in millilitres per Coulomb; s is a parameter to take into account cell processes inducing volume variations leading to refractive index charges by mechanisms other than dilution or concentration of the intracellular content by ions and water fluxes, s being one of the two values 0 and 1, and s = 1 corresponding to a simple dilution or concentration of the cell content; φ ( t) is the phase signal at the time t; and r is a parameter related to the cell deformation along a direction of the probing beam, associated with the volume variation. V 0 is an initial cell volume before ionic current; ε is a constant representing the volume variation associated with the net charge movement through the cell membrane expressed in millilitres per Coulomb; s is a parameter to take into account cell processes inducing volume variations leading to refractive index charges by mechanisms other than dilution or concentration of the intracellular content by ions and water fluxes, s being one of the two values 0 and 1, and s = 1 corresponding to a simple dilution or concentration of the cell content; φ ( t) is the phase signal at the time t; and r is a parameter related to the cell deformation along a direction of the probing beam, associated with the volume variation.
A breathing structure of vehicle, the breathing structure comprising: - a bracket configured to be fixedly connected to a first part of the vehicle and provided with at least one snap and at least one stopper; - a flange configured to be fixedly connected to or integrally made with a second part of the vehicle and provided with at least one snap slot and at least one contraction part; wherein the bracket and the flange are configured to be engaged with each other; and wherein the snap and the snap slot are configured to be engaged with each other by a snap fit, once engaged a clearance (d) is set between a snapping surface of the snap and a snapping surface of the snap slot, and the snapping surface of the snap can abut against the snapping surface of the snap slot when the second part suffers a deformation, so as to absorb and control the deformation of the second part; and wherein the stopper and the contraction part are configured to be engaged with each other, once engaged a clearance is set between the stopper and the contraction part, and the contraction part can abut against the stopper when the second part suffers a deformation, so as to absorb and control the deformation of the second part, wherein the stopper comprises a first stopping surface and a second stopping surface, and the contraction part is a contraction groove and comprises a first abutting surface and a second abutting surface, wherein the first abutting surface and the second abutting surface abut respectively the first stopping surface and the second stopping surface by sequence when the second part suffers a deformation. - a bracket configured to be fixedly connected to a first part of the vehicle and provided with at least one snap and at least one stopper; - a flange configured to be fixedly connected to or integrally made with a second part of the vehicle and provided with at least one snap slot and at least one contraction part;
Method for actuating a magnetic resonance device according to an MR control sequence comprising at least one excitation pulse followed by at least two consecutive refocusing pulses, wherein, between exactly two of the at least two consecutive refocusing pulses, all magnetic field gradients acting on a readout axis of the readout gradient induce a first Maxwell phase and at least one readout gradient is provided, comprising a bipolar gradient pulse having a first part and a second part of opposite polarity arranged between the excitation pulse and a first of the at least two consecutive refocusing pulses, wherein • a Maxwell phase induced by the bipolar gradient pulse corresponds to between 40% and 60% of the first Maxwell phase, • a gradient moment of the bipolar gradient pulse corresponds to a dephasing gradient moment, corresponding to the gradient moment of a dephasing gradient for the readout gradient, wherein a gradient moment is defined as a time integral over a corresponding magnetic field gradient, and • a duration of the bipolar gradient pulse corresponds at most to a first time interval between the excitation pulse and a first of the at least two consecutive refocusing pulses. • a Maxwell phase induced by the bipolar gradient pulse corresponds to between 40% and 60% of the first Maxwell phase, • a gradient moment of the bipolar gradient pulse corresponds to a dephasing gradient moment, corresponding to the gradient moment of a dephasing gradient for the readout gradient, wherein a gradient moment is defined as a time integral over a corresponding magnetic field gradient, and • a duration of the bipolar gradient pulse corresponds at most to a first time interval between the excitation pulse and a first of the at least two consecutive refocusing pulses.
A computer-executable training method for training a low-latency scene caption generator and a timing detector, wherein the low-latency scene caption generator comprises an audio-visual sensor feature encoder and a scene caption decoder, the method comprising: providing a training dataset that includes a set of audio-visual sensor signals and a set of groundtruth scene captions, wherein the set of audio-visual sensor signals is a set of video clips; converting a video clip in the set of video clips to a feature vector sequence for the video clip using a feature extractor; eliminating future frames from the feature vector sequence using a future frame eliminator, wherein the future frame eliminator takes the first K feature vectors from the feature vector sequence and removes other feature vectors to generate a future-eliminated feature vector sequence, wherein K is determined randomly from 1 ≤ K ≤ | Z | and | Z | denotes a length of the feature vector sequence; encoding the future-eliminated feature vector sequence to a hidden activation vector sequence; training the low-latency scene caption generator by computing a loss value; computing a loss value based on a posterior probability distribution and the groundtruth captions; training the timing detector by computing a supervision signal based on a scene caption similarity between a scene caption for the future-eliminated feature vector sequence and the groundtruth caption; wherein the timing detector is trained to detect an output timing to generate a caption as soon as events happen or when the events are forecasted. providing a training dataset that includes a set of audio-visual sensor signals and a set of groundtruth scene captions, wherein the set of audio-visual sensor signals is a set of video clips; converting a video clip in the set of video clips to a feature vector sequence for the video clip using a feature extractor; eliminating future frames from the feature vector sequence using a future frame eliminator, wherein the future frame eliminator takes the first K feature vectors from the feature vector sequence and removes other feature vectors to generate a future-eliminated feature vector sequence, wherein K is determined randomly from 1 ≤ K ≤ | Z | and | Z | denotes a length of the feature vector sequence; encoding the future-eliminated feature vector sequence to a hidden activation vector sequence; training the low-latency scene caption generator by computing a loss value; computing a loss value based on a posterior probability distribution and the groundtruth captions; training the timing detector by computing a supervision signal based on a scene caption similarity between a scene caption for the future-eliminated feature vector sequence and the groundtruth caption; wherein the timing detector is trained to detect an output timing to generate a caption as soon as events happen or when the events are forecasted.
An aerosol delivery device comprising: a housing defining an outer wall, and further including a power source and a control component; an exit aerosol path defined through an opening; a tank portion that includes a reservoir configured to contain a liquid composition; and an atomization assembly (915A;915B) configured to vaporize the liquid composition to generate an aerosol, wherein the atomization assembly comprises two or more vibrating assemblies (915A;915B), at least one of which is in fluid communication with the reservoir, wherein each vibrating assembly (915A;915B) includes a mesh plate, characterised in that the mesh plates are substantially non-coplanar, and wherein there are two vibrating assemblies (915A;915B), wherein the opening is offset from the center of the device, and wherein each of the mesh plates of the vibrating assemblies defines an acute angle with respect to a portion of the exit aerosol path proximate the opening. a housing defining an outer wall, and further including a power source and a control component; an exit aerosol path defined through an opening; a tank portion that includes a reservoir configured to contain a liquid composition; and an atomization assembly (915A;915B) configured to vaporize the liquid composition to generate an aerosol, wherein the atomization assembly comprises two or more vibrating assemblies (915A;915B), at least one of which is in fluid communication with the reservoir, wherein each vibrating assembly (915A;915B) includes a mesh plate, characterised in that the mesh plates are substantially non-coplanar, and wherein there are two vibrating assemblies (915A;915B), wherein the opening is offset from the center of the device, and wherein each of the mesh plates of the vibrating assemblies defines an acute angle with respect to a portion of the exit aerosol path proximate the opening.
A sustained-release pharmaceutical composition of topiramate, which is a topiramate sustained-release pellet, and the topiramate sustained-release pellet comprises a blank pellet core, a drug layer, and a sustained-release coating layer, in which the drug layer is free of binding agent.
A pharmaceutical composition for use in the treatment of a microbial infection in an infant of a pregnant or lactating mother, wherein the pharmaceutical composition comprises cells of probiotic bacterium Lactobacillus paracasei CBA L74, International Depository Accession Number LMG P-24778, in combination with one or more pharmaceutically acceptable carriers, wherein an effective amount of the pharmaceutical composition is administered to the mother, and the Lactobacillus paracasei CBA L74 cells are non-replicating.
A method for reducing N 2 O emissions in an exhaust gas comprising NO and NO 2, which method comprising contacting an exhaust gas containing NH 3 and an inlet NO concentration with an SCR catalyst composition containing small pore zeolite having an SAR of 13 and having 3 wt. % of an exchanged transition metal to produce a purified gas containing an outlet NO concentration and an outlet N 2 O concentration, a. wherein the inlet NO concentration and outlet NO concentration have a relative ratio of >4, and b. wherein the inlet NO concentration and outlet N 2 O concentration have a relative ratio of > 50; wherein the contacting occurs at a temperature of 450°C to 550°C, and wherein the transition metal is copper, and wherein the small pore zeolite has a CHA framework. a. wherein the inlet NO concentration and outlet NO concentration have a relative ratio of >4, and b. wherein the inlet NO concentration and outlet N 2 O concentration have a relative ratio of > 50; wherein the contacting occurs at a temperature of 450°C to 550°C, and wherein the transition metal is copper, and wherein the small pore zeolite has a CHA framework. wherein the contacting occurs at a temperature of 450°C to 550°C, and wherein the transition metal is copper, and wherein the small pore zeolite has a CHA framework.
Device for damping torsional oscillations, having a single resonant frequency, for a component of a transmission system, the device being intended to be positioned away from the path followed by the torque transmitted by this component, the device comprising: - a primary component and a secondary component, which is capable of rotational movement about an axis with respect to the primary component against an elastic return force, and - a hysteresis generating system (40, 41) for moving the secondary component with respect to the primary component, the said system comprising at least one ramp borne by a part (42, 62, 72) secured to the secondary component and interacting frictionally with a counter-ramp as the secondary component rotates with respect to the primary component, the part secured to the secondary component bearing the ramp being a washer (42, 62, 72), characterized in that this washer (42, 62, 72) is positioned axially beyond the secondary component and the primary component. - a primary component and a secondary component, which is capable of rotational movement about an axis with respect to the primary component against an elastic return force, and - a hysteresis generating system (40, 41) for moving the secondary component with respect to the primary component, the said system comprising at least one ramp borne by a part (42, 62, 72) secured to the secondary component and interacting frictionally with a counter-ramp as the secondary component rotates with respect to the primary component,
A method for generating a secure receipt for securing an electronic transaction, comprising: - generating a personal challenge via an authentication system of a secure server system, awaiting a unique response from a user as proof of user identity; - generating a secure receipt including visual integrity control comprising integration of the personal challenge and of the transaction data in the receipt in the form of a bitmap having characters legible by a human being but scarcely legible, or illegible, by a machine, the visual integrity control comprising a personal background image rasterized with details of the transaction and of the challenge; - associating the response to the challenge with the challenge and the transaction; and - by means of the receipt, generating irrefutable proof of the transaction by providing a centralised public key infrastructure containing private keys and user certificates, the PKI being connected in secure manner to a receipt-generating engine only accepting to encrypt a Hash of the receipt with the private key of the user in exchange for a correct response to the challenge contained in the receipt. - generating a personal challenge via an authentication system of a secure server system, awaiting a unique response from a user as proof of user identity; - generating a secure receipt including visual integrity control comprising integration of the personal challenge and of the transaction data in the receipt in the form of a bitmap having characters legible by a human being but scarcely legible, or illegible, by a machine, the visual integrity control comprising a personal background image rasterized with details of the transaction and of the challenge; - associating the response to the challenge with the challenge and the transaction; and - by means of the receipt, generating irrefutable proof of the transaction by providing a centralised public key infrastructure containing private keys and user certificates, the PKI being connected in secure manner to a receipt-generating engine only accepting to encrypt a Hash of the receipt with the private key of the user in exchange for a correct response to the challenge contained in the receipt.