mhurhangee/patent-ind-claim-en huggingface dataset:
A device for spine rehabilitation comprising a support frame, immovable crossbars, movable crossbars and systems of actuators with attached sling hangers supporting a patient's hip, knees, and feet, the device for spine rehabilitation is further equipped with a holder with mounted linear actuators which have attached sling hangers supporting the patient's head and shoulders, whereby the holder has a driving mechanism situated horizontally and mounted to an immovable crossbar of the support frame and whereby the holder in its lower part is rotationally mounted, at the rotation point of the holder , to the immovable crossbar , such that, in use, a lateral movement of the patient suspended on the linear actuators in the area of the head and the shoulders is carried out by the movement of the holder by the driving mechanism along an arc within a designated range of the movement.
A device for monitoring the spatial and temporal dynamics of thrombin comprising: a temperature-controlled sealed chamber with a transparent window and a light trap , said chamber being filled with a fluid medium and designed to be capable of accommodating a cuvette containing a test sample of blood plasma, and into which a coagulation activating insert is placed, the latter having a substance applied to the butt end thereof which initiates the coagulation process, at least one means of illumination of the sample designed to be capable of receiving the light scattering signal from the sample, at least one first means of irradiation designed to be capable of exciting the fluorescence signal of a special marker that forms in the sample during the cleavage of a fluorogenic substrate previously added to the sample by one of the proteolytic enzymes of the coagulation system, a means of optical photo/ video registration of light scattering /irradiation from the sample, and a means for adjustment of pressure in the temperature-controlled sealed chamber designed to be capable of maintaining a pressure inside the chamber exceeding the atmospheric one, characterized in that it comprises at least one second means of irradiation of the sample designed to be capable of exciting a fluorescence signal of the said marker, where at least one first means of irradiation provides irradiation of the sample in a direction perpendicular to the cuvette plane, and said at least one second means of irradiation provides irradiation of the sample at an angle to the cuvette plane from below.
A method of regenerating a desiccant in an off-line treater of a polyolefin production process, the method comprising a heating phase followed by a cooling phase, the heating phase comprising: treating a recycle stream of the polyolefin production process in an on-line treater to yield a treated recycle stream , wherein the on-line treater is configured to remove water from the recycle stream ; heating at least a portion of the treated recycle stream to yield a regenerating gas; regenerating at least a portion of the desiccant in the off-line treater using the regenerating gas to yield a regenerating effluent stream; separating the regenerating effluent stream into an impurity stream and a regenerating recycle stream ; and recycling the regenerating recycle stream to the on-line treater . treating a recycle stream of the polyolefin production process in an on-line treater to yield a treated recycle stream , wherein the on-line treater is configured to remove water from the recycle stream ; heating at least a portion of the treated recycle stream to yield a regenerating gas; regenerating at least a portion of the desiccant in the off-line treater using the regenerating gas to yield a regenerating effluent stream; separating the regenerating effluent stream into an impurity stream and a regenerating recycle stream ; and recycling the regenerating recycle stream to the on-line treater .
A tidal dry powder inhaler comprising a miniature barometric pressure sensor (110; 210; 310; 410; 510) comprising a sensing element; a flow channel (120; 520) through which a user can inhale; a sensor port (111; 511) of the miniature barometric pressure sensor, wherein the sensor port is pneumatically coupled to the flow channel; a processor configured to process data received from the sensing element, and determine whether inhalation of a spontaneous breath through said flow channel is in progress; a controller configured to generate a start dosing signal in response to determination that the inhalation through the flow channel is in progress; and a dosing mechanism configured to release dry powder medicament into the flow channel during the inhalation of the spontaneous breath in response to receiving said start dosing signal, characterised in that said processor is further configured to, subsequent to making the determination that the inhalation of the spontaneous breath through said flow channel is in progress, process data received from said sensing element to make a determination that a target volume of the user's lungs has been filled; wherein said controller is further configured to, responsive to said determination that a target volume of the user's lungs has been filled, issue a stop dosing signal; and wherein the dosing mechanism is further configured to stop releasing dry powder medicament into the flow channel in response to receiving said stop dosing signal.
A device suitable for cleaning three-dimensional components printed in a powder bed, i.e. 3D-printed components from adhering powder particles, wherein the device is designed in such a way that the 3D-printed components are cleaned with a negative pressure-induced volume flow by first removing these 3D-printed components from the powder bed after their production, then positioning them on a feeding device and moving them together with the latter into a pressure-tight sealable space, in the interior of which a negative pressure is subsequently built up and a fluid volume flow is applied to the 3D-printed component to be cleaned, whereby powder particles are detached from the 3D-printed component , which are discharged from the pressure-tight sealable space via at least one channel contour which can be subjected to negative pressure and are fed to a separating device, wherein the pressure-tight sealable space is subsequently first depressurized and then opened for removal of the cleaned 3D-printed component , wherein the device comprises at least one product carrier for receiving a 3D-printed component to be cleaned and a housing designed as a suction jet cabin, wherein the product carrier has a perforated bottom and is displaceable into the housing by means of a transport system , wherein the housing has at least one door which can be closed in a pressure-tight manner for inserting and removing the product carrier , wherein a platform which can be moved in a plurality of axes is arranged in the housing for receiving a 3D-printed component to be cleaned, wherein the interior of the housing is operatively connected to a device for generating a negative pressure, wherein the housing has one or more openings which can be closed in a pressure-tight manner and in each of which tubular feed lines are arranged which open into the interior of the housing and with which a volume flow can be generated in the interior of the housing , and wherein the product carrier and the interior of the housing are each connected via a collecting funnel to a line system which can be subjected to negative pressure and which is operatively connected to a separating device.
Medical device for detecting and generating resonance frequencies comprising the following modules: - a module for recording electrophysiological measurements on human or animal patients, - a storage module comprising a database with already known resonance frequency patterns, - a module for generating electromagnetic frequencies and - at least one electrode that is used both for detecting electrophysiological measurements and for imprinting the electromagnetic frequencies on the patient, wherein the device is configured for a control comprising the following steps: a) determining electrophysiological data points of the patient depending on electromagnetic frequencies imprinted on the patient, b) comparing these electrophysiological data points with a standard value for these electrophysiological data points, c) identifying at least one of the frequencies from step a), in which the electrophysiological data point deviates from the standard value, as a resonance frequency, and d) matching the at least one resonance frequency of the patient with the database of already known resonance frequency patterns. - a module for recording electrophysiological measurements on human or animal patients, - a storage module comprising a database with already known resonance frequency patterns, - a module for generating electromagnetic frequencies and - at least one electrode that is used both for detecting electrophysiological measurements and for imprinting the electromagnetic frequencies on the patient, a) determining electrophysiological data points of the patient depending on electromagnetic frequencies imprinted on the patient, b) comparing these electrophysiological data points with a standard value for these electrophysiological data points, c) identifying at least one of the frequencies from step a), in which the electrophysiological data point deviates from the standard value, as a resonance frequency, and d) matching the at least one resonance frequency of the patient with the database of already known resonance frequency patterns.
Transport vehicle for transporting roll-off containers , comprising - a slide upon which a roll-off container is to be placed for loading and/or unloading the transport vehicle , - at least one vehicle longitudinal chassis beam extending in the longitudinal direction of the vehicle, which is part of a vehicle frame and the upper side of which is used as a rail guide extending in the longitudinal direction of the vehicle, along which the slide is moved from a container placement position in the direction of a container transport position and vice versa, characterized in that the transport vehicle has a tilting frame with at least one tilting frame longitudinal beam which can be pivoted, in the area of a vehicle rear, around a pivot axis running horizontally and transversely to the longitudinal axis of the vehicle from a transport position to a tilt position, wherein, the vehicle longitudinal chassis beam forms a first longitudinal section of a rail guide running in the longitudinal direction of the vehicle, and an upper side of the tilting frame longitudinal beam forms a second longitudinal section of the rail guide which, when the tilting frame longitudinal beam is in the transport position, directly adjoins, in the vehicle longitudinal direction, the first longitudinal section of the rail guide formed by the vehicle longitudinal chassis beam , wherein the rail guide has sections with different grades in its second longitudinal section formed by the upper side of the tilting frame longitudinal beam . - a slide upon which a roll-off container is to be placed for loading and/or unloading the transport vehicle , - at least one vehicle longitudinal chassis beam extending in the longitudinal direction of the vehicle, which is part of a vehicle frame and the upper side of which is used as a rail guide extending in the longitudinal direction of the vehicle, along which the slide is moved from a container placement position in the direction of a container transport position and vice versa, characterized in that the transport vehicle
A method of performing multiple-factor authentication of a user within an account network , the method comprising: receiving user credentials of the user and device credentials generated by a device employed by the user to access the account network ; associating a user identifier of the user credentials with a device identifier of the device credentials to represent a trust relationship between the user and the device; evaluating the user credentials and the device credentials to generate verification results; prompting the device for an additional credential as an alternative to the device credentials upon unsuccessful verification of the device credentials; providing evidence of identity of the user based on the verification results of both the user credentials and the device credentials ; granting a first level of privilege if the evidence of identity indicates successful verification of both the user credentials of the user and the device credentials of the device by the authentication provider ; and granting a second level of privilege if the evidence of identity indicates unsuccessful verification of either the user credentials of the user or the device credentials of the device by the authentication provider . receiving user credentials of the user and device credentials generated by a device employed by the user to access the account network ; associating a user identifier of the user credentials with a device identifier of the device credentials to represent a trust relationship between the user and the device; evaluating the user credentials and the device credentials to generate verification results; prompting the device for an additional credential as an alternative to the device credentials upon unsuccessful verification of the device credentials; providing evidence of identity of the user based on the verification results of both the user credentials and the device credentials ; granting a first level of privilege if the evidence of identity indicates successful verification of both the user credentials of the user and the device credentials of the device by the authentication provider ; and granting a second level of privilege if the evidence of identity indicates unsuccessful verification of either the user credentials of the user or the device credentials of the device by the authentication provider .
A vehicle braking system control circuit for controlling the operation of a main switch device which manages an electrical current delivered to an inductive load device , the control circuit including: a current sense circuit configured to be coupled to the main switch device and to output a signal representative of an electrical current through the inductive load device ; a current comparator circuit configured to receive an actuation command signal, compare the signal representative of the electrical current through the inductive load device with a signal representative of a predetermined current, and to output a control signal based on the comparison for controlling the operation of the main switch device when the actuation command signal indicates that the inductive load device is to be activated; a recirculation circuit configured to recirculate current through the inductive load device , such that the current used to activate the inductive load device is selectively provided by the main switch device and the recirculation circuit with the recirculation current from the inductive load device providing a drive modulation for the main switch device ; and a current shaping circuit which is configured to cause a limit to be applied on the rate of rise of the electrical current through the inductive load device . a current sense circuit configured to be coupled to the main switch device and to output a signal representative of an electrical current through the inductive load device ; a current comparator circuit configured to receive an actuation command signal, compare the signal representative of the electrical current through the inductive load device with a signal representative of a predetermined current, and to output a control signal based on the comparison for controlling the operation of the main switch device when the actuation command signal indicates that the inductive load device is to be activated; a recirculation circuit configured to recirculate current through the inductive load device , such that the current used to activate the inductive load device is selectively provided by the main switch device and the recirculation circuit with the recirculation current from the inductive load device providing a drive modulation for the main switch device ; and a current shaping circuit which is configured to cause a limit to be applied on the rate of rise of the electrical current through the inductive load device .
Waffle element for a production plant that comprises at least one opening wherein the opening has a rectangular outline and the waffle element has a square outline, characterised in that in a view from above onto the waffle element one side of the rectangular opening forms an acute angle (α) with one side of the square waffle element.
A method for producing a large-volume container comprising two container shells from plastic material, in which a tube-shaped preform of plastic material in a thermoplastic state is passed over a mold frame which faces two blow molds in the open state, the two blow molds are closed, wherein the mold frame forms a circumferential flange at the edge of the respective blow mold and thus at the outer edge of the respective container shell , the container shells are formed in the blow molds simultaneously by plastic blow molding, wherein during the forming of the flange of one the container shells also a circumferential groove is formed by means of a circumferential groove forming element on the mold frame which groove is designed to receive a seal at a later point in time, after cooling of the plastic material in the blow molds the container shells are cut free from the mold frame along the mold frame and are taken out of the blow molds , at least two container shells each with a capacity of 250 to 5,000 l are transported from the place of manufacture to a destination and are connected there at their circumferential flanges to form the large-volume container.
A stapled peptide, wherein the stapled peptide comprises a peptide backbone and at least one staple, wherein the stapled peptide is defined according to Formula (I) or Formula (II): wherein: [Xaa] is any natural or synthetic amino acid; x is an integer from 2 to 10; y is an integer from 2 to 10; and z is an integer from 2 to 10, wherein: the staple is defined according to Formula (a) or Formula (b): wherein: R is H or a C 1 -C 30 alkyl group; X is -(CH 2 ) a - or -C(O)NH-, wherein a is an integer from 1 to 6; m is an integer from 0 to 6; and n is an integer from 0 to 6; and wherein the stapled peptide has a helical structure. [Xaa] is any natural or synthetic amino acid; x is an integer from 2 to 10; y is an integer from 2 to 10; and z is an integer from 2 to 10, the staple is defined according to Formula (a) or Formula (b): R is H or a C 1 -C 30 alkyl group; X is -(CH 2 ) a - or -C(O)NH-, wherein a is an integer from 1 to 6; m is an integer from 0 to 6; and n is an integer from 0 to 6; and
Bar for connecting dental implants that are anchored in a jaw bone, wherein this bar comprises a base with an underside that is provided to be directed towards the jaw bone with the implants , wherein the bar is provided to be received in a cavity of a component of a dental prosthesis , wherein this component among other things imitates the gums, wherein this base is made of a biocompatible material comprising a high-performance polymer, characterized in that this base comprises two or more recesses that open out on the underside of the base , and the bar comprises two or more click elements that are received in the respective recesses, wherein these click elements are provided to make click connections with two or more dental implants for connecting the bar to the dental implants .
An ablation system , the system comprising: a distributed sensor (910, 1011-1019) including a fiber optic sensor configured to provide a plurality of temperature measurements corresponding to a plurality of points in a measurement range, the fiber optic sensor including an optical fiber that extends through the measurement range and is configured to measure a shape of the fiber optic sensor along the measurement range; an ablation probe ; a thermal energy source configured to apply thermal energy to the body tissue along the measurement range; and one or more processors configured to: capture a baseline heat flux measurement at a target site; initiate, by the ablation probe, an ablation procedure on target tissue at the target site; capture a post-ablation heat flux measurement associated at the target site; and determine whether the target tissue was successfully ablated by comparing the baseline heat flux measurement to the post-ablation heat flux measurement, wherein the capturing of the baseline heat flux measurement comprises: receiving the plurality of temperature measurements from the distributed sensor; and determining an amount of thermal energy applied by the thermal energy source at each of the plurality of points. a distributed sensor (910, 1011-1019) including a fiber optic sensor configured to provide a plurality of temperature measurements corresponding to a plurality of points in a measurement range, the fiber optic sensor including an optical fiber that extends through the measurement range and is configured to measure a shape of the fiber optic sensor along the measurement range; an ablation probe ; a thermal energy source configured to apply thermal energy to the body tissue along the measurement range; and one or more processors configured to: capture a baseline heat flux measurement at a target site; initiate, by the ablation probe, an ablation procedure on target tissue at the target site; capture a post-ablation heat flux measurement associated at the target site; and determine whether the target tissue was successfully ablated by comparing the baseline heat flux measurement to the post-ablation heat flux measurement, capture a baseline heat flux measurement at a target site; initiate, by the ablation probe, an ablation procedure on target tissue at the target site; capture a post-ablation heat flux measurement associated at the target site; and determine whether the target tissue was successfully ablated by comparing the baseline heat flux measurement to the post-ablation heat flux measurement, wherein the capturing of the baseline heat flux measurement comprises: receiving the plurality of temperature measurements from the distributed sensor; and determining an amount of thermal energy applied by the thermal energy source at each of the plurality of points. receiving the plurality of temperature measurements from the distributed sensor; and determining an amount of thermal energy applied by the thermal energy source at each of the plurality of points.