mhurhangee/ep-ind-claims huggingface dataset:
A system (10, 200) for delivering an implantable medical device, comprising: a handle housing extending from a proximal region to a distal region; an outer sheath configured to cover at least a portion of the implantable medical device, the outer sheath extending distally from the handle housing; an outer sheath coupler disposed within the handle housing and secured to the outer sheath; an outer sheath nut threadedly disposed on an outer sheath threaded rod and operably coupled to the outer sheath coupler; and an outer sheath drive motor operably coupled to the outer sheath threaded rod such that actuation of the outer sheath drive motor causes the outer sheath threaded rod to rotate relative to the outer sheath nut, thereby causing the outer sheath nut to translate relative to the outer sheath threaded rod as the outer sheath nut is held against rotation, and thus causing the outer sheath coupler and the outer sheath to translate relative to the handle housing; characterized by an outer sheath access door disposed near the proximal region of the handle housing; wherein the outer sheath drive motor is configured to be disengaged from the outer sheath threaded rod upon removal of the outer sheath access door such that a manual drive tool can be used to engage and manually rotate the outer sheath threaded rod. a handle housing extending from a proximal region to a distal region; an outer sheath configured to cover at least a portion of the implantable medical device, the outer sheath extending distally from the handle housing; an outer sheath coupler disposed within the handle housing and secured to the outer sheath; an outer sheath nut threadedly disposed on an outer sheath threaded rod and operably coupled to the outer sheath coupler; and an outer sheath drive motor operably coupled to the outer sheath threaded rod such that actuation of the outer sheath drive motor causes the outer sheath threaded rod to rotate relative to the outer sheath nut, thereby causing the outer sheath nut to translate relative to the outer sheath threaded rod as the outer sheath nut is held against rotation, and thus causing the outer sheath coupler and the outer sheath to translate relative to the handle housing; characterized by an outer sheath access door disposed near the proximal region of the handle housing; wherein the outer sheath drive motor is configured to be disengaged from the outer sheath threaded rod upon removal of the outer sheath access door such that a manual drive tool can be used to engage and manually rotate the outer sheath threaded rod.
Sensor device for detecting an angular position of a rotating object, wherein the sensor device has a switching threshold and a mean-value forming circuit for mean value formation of the sensor output signal and a first reference level or a second reference level is defined as switching threshold and the two reference levels (E, F) lie below or above a mean value delivered by the mean-value forming circuit, and the mean-value forming circuit receives the sensor output signal and an output delivers a signal representative for the switching threshold, and the reference levels (E, F) lie within the full-output drive range of the sensor output signal and intersect the curve of the sensor output signal, and with a pass detection of a sensor output signal through a reference level (E, F), wherein an evaluating circuit delivers a detection signal of the angular position only when the level of the sensor output signal crosses the first reference level or the second reference level, and the evaluating circuit comprises a comparator with two inputs, and the comparator has a first input and a second input and an output and supplies the sensor output signal at the first input and the detection signal at the output, characterised in that a selection circuit with a switch for selectable feed of the first reference level or the second reference level to the second input of the comparator is provided and the output signal for switching over the switch is applied to the switch.
A packaging machine comprising: - a packaging station for wrapping packaging trays with a stretchable film, - a table consisting of multiple lift posts attached to a bottom plate, the table is for supporting a packaging tray to be wrapped, wherein at least one lift post consists of a fixed member attached at one side to the bottom plate and further consists of a support head at the other side, wherein the support head is attached to the fixed member by a spring characterized in that the spring forms a flexible connection bendable in each direction in a plane orthogonal to the lift post, wherein the support head comprises a first holding member for holding one end of the spring and the fixed member comprises a second holding member for holding the other end of the spring and in that the fixed member has at one end a plane side and the support head has at one end a plane side, the two plane sides are located side by side in the lift post and the spring is for forcing the plane sides against each other. - a packaging station for wrapping packaging trays with a stretchable film, - a table consisting of multiple lift posts attached to a bottom plate, the table is for supporting a packaging tray to be wrapped,
A method for obtaining an inertial measurement comprising: obtaining multiple contiguous high sample rate readings during a time period from a conventional inertial sensor; obtaining a non-contiguous low sample rate reading of accumulated motion over the time period from an atomic inertial sensor, wherein the time period is longer than a time period in which separated atom clouds of the atomic inertial sensor accumulate a wavelength of phase difference; resolving ambiguity in phase of the low sample rate reading based on the multiple high sample rate readings; estimating one or more observable errors for the conventional inertial sensor based on comparing the low sample rate reading to the multiple high sample rate readings; and determining a compensated hybrid reading by compensating the high sample rate readings for the one or more observable errors based on the estimating of the one or more observable errors. obtaining multiple contiguous high sample rate readings during a time period from a conventional inertial sensor; obtaining a non-contiguous low sample rate reading of accumulated motion over the time period from an atomic inertial sensor, wherein the time period is longer than a time period in which separated atom clouds of the atomic inertial sensor accumulate a wavelength of phase difference; resolving ambiguity in phase of the low sample rate reading based on the multiple high sample rate readings; estimating one or more observable errors for the conventional inertial sensor based on comparing the low sample rate reading to the multiple high sample rate readings; and determining a compensated hybrid reading by compensating the high sample rate readings for the one or more observable errors based on the estimating of the one or more observable errors.
Vibrator with a spring having a first end and a second end, a frame immovably attached to the second end, the frame carrying a movable armature and at the second end of the spring a coupling with an armature plate is immovably attached, whereby the armature plate and the movable armature are provided in close proximity with an air gap there between, a permanent magnet associated with one or both of the armature plate and/or the movable armature, an electrical coil associated with one or both of the armature plate and/or the movable armature, an adjustment screw provided to displace the movable armature towards or away from the armature plate, wherein the screw is inserted in a bore (115; 112), wherein the bore has a length axis placed along a plane of intersection between the movable armature and the frame wherein one part of the bore is provided in the movable armature and an opposed part of the bore is provided in the frame, and one part of the bore is threaded and the opposed part is unthreaded wherein the threaded part of the bore is provided in the movable armature, and a surface is provided in the frame adjacent the bore and adapted to interact with a part of the screw and arresting motion of the screw in at least one axial direction.
A cable catcher for use as a broken-wire support in the replacement of two or more old transmission lines extending between two pylons and to be simultaneously replaced by two or more new transmission lines, the cable catcher comprising a carrier comprising a structure permitting it to extend over laterally spaced apart transmission lines and configured to rest on the two or more old transmission lines or on the two or more new transmission lines and permitting the cable catcher to be suspended from the two or more old transmission lines or the two or more new transmission lines, wherein the cable catcher includes a structure to provide a longitudinal passage below, and extending in the direction of, the transmission lines.
A polymeric material, wherein the polymeric material is formed from a thermoplastic composition containing a continuous phase that includes a matrix polymer, and further wherein a polymeric microinclusion additive and a polymeric nanoinclusion additive are dispersed within the continuous phase in the form of discrete domains, wherein the polymeric material defines a first zone that is contiguous to a second zone, wherein a porous network is formed within the first zone such that the first zone exhibits a greater pore volume than the second zone; wherein the microinclusion additive constitutes from 1 wt.% to 30 wt.% of the composition, based on the weight of the continuous phase; and wherein the nanoinclusion additive constitutes from 0.05 wt.% to 20 wt.% of the composition, based on the weight of the continuous phase. wherein the microinclusion additive constitutes from 1 wt.% to 30 wt.% of the composition, based on the weight of the continuous phase; and wherein the nanoinclusion additive constitutes from 0.05 wt.% to 20 wt.% of the composition, based on the weight of the continuous phase.
A method of simulating gimbal control of a vehicle, said method comprising: receiving, gimbal control data from a remote control system (203, 305, 406, 505, 606) configured to communicate with the gimbal control system and position data describing a simulated attitude of the vehicle; generating, at a gimbal control system, simulated gimbal response data based on the gimbal control data and the position data describing the simulated attitude of the vehicle; and transmitting, to the remote control system (203, 305, 406, 505, 606), the simulated gimbal response data from the gimbal control system on-board the vehicle. receiving, gimbal control data from a remote control system (203, 305, 406, 505, 606) configured to communicate with the gimbal control system and position data describing a simulated attitude of the vehicle; generating, at a gimbal control system, simulated gimbal response data based on the gimbal control data and the position data describing the simulated attitude of the vehicle; and transmitting, to the remote control system (203, 305, 406, 505, 606), the simulated gimbal response data from the gimbal control system on-board the vehicle.
A perfusion system for perfusing an organ, the system comprising: a perfusion fluid circuit arranged to circulate perfusion fluid through the organ; and a surrogate organ (126, 126') arranged to be connected into the circuit in place of the organ so that the circuit can circulate fluid through the surrogate organ; characterised in that the system further comprises organ sensing means arranged to distinguish between the presence of the organ in the circuit and the presence of the surrogate organ in the circuit.
A fan blade (100, 200), comprising: a blade body (102, 202) extending from a blade root (103, 203) to an opposed blade tip along a longitudinal axis, wherein the blade body defines a leading edge (107, 207) and a trailing edge, a first airfoil surface (111, 211) extending from the leading edge to the trailing edge, and a pocket (112, 212) defined between the leading edge, the trailing edge, the blade root and the blade tip, the pocket having a bottom surface that opposes the first airfoil surface across the blade body; and a cover (106, 206) that forms a second airfoil surface opposed to the first airfoil surface; characterised in that the fan blade further comprises; a composite rib (104, 204) disposed in the pocket, the blade body (102, 202) includes a blade rib (220, 320) defined between the leading edge (107, 207) and trailing edge, wherein the blade rib is integral with the blade body (102, 202), wherein the composite rib is adhered to the bottom surface of the pocket (112, 212) and to an interior surface (119, 219) of the cover (106, 206), wherein the composite rib (104, 204) extends from a leading edge side (113, 213) of the pocket to a trailing edge (115, 215) side of the pocket (112, 212), wherein the composite rib is adhered to the leading edge side of the pocket and the trailing edge side of the pocket, wherein the composite rib (104, 204) includes a groove corresponding to a shape of the blade rib, wherein the blade rib is adhered to the composite rib within the groove to increase a surface area of the composite rib in contact with the blade rib. a blade body (102, 202) extending from a blade root (103, 203) to an opposed blade tip along a longitudinal axis, wherein the blade body defines a leading edge (107, 207) and a trailing edge, a first airfoil surface (111, 211) extending from the leading edge to the trailing edge, and a pocket (112, 212) defined between the leading edge, the trailing edge, the blade root and the blade tip, the pocket having a bottom surface that opposes the first airfoil surface across the blade body; and a cover (106, 206) that forms a second airfoil surface opposed to the first airfoil surface; characterised in that the fan blade further comprises; a composite rib (104, 204) disposed in the pocket, the blade body (102, 202) includes a blade rib (220, 320) defined between the leading edge (107, 207) and trailing edge, wherein the blade rib is integral with the blade body (102, 202), wherein the composite rib is adhered to the bottom surface of the pocket (112, 212) and to an interior surface (119, 219) of the cover (106, 206), wherein the composite rib (104, 204) extends from a leading edge side (113, 213) of the pocket to a trailing edge (115, 215) side of the pocket (112, 212), wherein the composite rib is adhered to the leading edge side of the pocket and the trailing edge side of the pocket, wherein the composite rib (104, 204) includes a groove corresponding to a shape of the blade rib, wherein the blade rib is adhered to the composite rib within the groove to increase a surface area of the composite rib in contact with the blade rib.
A method for applying thin films to substrates, according to which - substrates are located on substrate holders which are each installed on a carriage and mounted such that they move through the processing chambers in a specified order, and - the substrate holders are moved through the processing chambers in order, and the coating is done in the processing chambers, with the aid of processing devices built into them, and - wherein the substrate holders are embodied in the form of rotary drums, - and wherein the rotary drums are moved through treatment areas of the processing devices parallel to the axis of rotation of the rotary drums, and on passage through the processing chambers they are rotated at constant linear and angular speeds, characterized in that - the substrate holders are each accelerated by an external drive to the requisite angular speed in at least one sluice chamber (13, 14) while the carriage is immovable, and continue their rotation thereafter; - that each carriage is equipped with a low-voltage motor for rotating the substrate holder, which motor is fed via rollers of a transportation system or via individual contact rollers and linear guides of the carriage, which are insulated from a housing of the carriage; and - that the linear and angular speed ratio is selected on the basis of a condition that each point of the rotary drum surface - executes at least two complete rotations upon passage through the treatment areas of the processing device. - substrates are located on substrate holders which are each installed on a carriage and mounted such that they move through the processing chambers in a specified order, and - the substrate holders are moved through the processing chambers in order, and the coating is done in the processing chambers, with the aid of processing devices built into them, and - wherein the substrate holders are embodied in the form of rotary drums, - and wherein the rotary drums are moved through treatment areas of the processing devices parallel to the axis of rotation of the rotary drums, and on passage through the processing chambers they are rotated at constant linear and angular speeds, characterized in that - the substrate holders are each accelerated by an external drive to the requisite angular speed in at least one sluice chamber (13, 14) while the carriage is immovable, and continue their rotation thereafter; - that each carriage is equipped with a low-voltage motor for rotating the substrate holder, which motor is fed via rollers of a transportation system or via individual contact rollers and linear guides of the carriage, which are insulated from a housing of the carriage; and - that the linear and angular speed ratio is selected on the basis of a condition that each point of the rotary drum surface - executes at least two complete rotations upon passage through the treatment areas of the processing device.
Sealing corner for sealing a sanitary fixture, for example a tub, such as a bathtub, shower tray or a walk-in shower tray, in particular to a surrounding wall, the sealing corner being formed on the basis of a rubber and/or plastics film, optionally comprising a non-woven fabric layer (2, 3), and being flexible overall, the sealing corner furthermore comprising a portion that can be used, in an installed state, as a wall portion, and a shoulder portion that is on the inside of the corner and extends perpendicularly to said wall portion, in any case in the specified installed state, the wall portion and the shoulder portion furthermore transitioning into one another so as to be uniform in material, and in addition the shoulder portion that is formed integrally with the wall portion further integrally transitioning, in any case in the installed state, into a connecting unit that also extends at an angle to the shoulder portion and extends in the opposite direction from the wall portion with respect to the shoulder portion, characterised in that there is a permanent, visible material effect in the rubber and/or plastics film and/or the non-woven fabric layer, for the purpose of forming the shoulder portion at the provided transition of the wall portion into the shoulder portion, in that the shoulder portion widens towards a corner centre, and in that the shoulder portion extends in a circular arc in the region of the corner centre in a plan view.
Particle board comprising a lower and an upper surface layer (9, 11), each having a finer fraction of particles, and between these lower and an upper surface layers (9, 11) an intermediate layer having a coarser fraction of particles, wherein said intermediate layer has a varying density and is of largely even thickness (t), wherein said lower and upper surface layer (9, 11) each have an even distribution of the finer fraction of particles, wherein said intermediate layer has at least one stranded part formed from particles and having a higher density than at least one other surrounding part of said intermediate layer.
Reflection correction method for correcting digital microscopic images, comprising the following steps: - illuminating an object with at least three different illumination patterns (11, 12), each illumination pattern (11, 12) having at least one active illumination source, - creating an illumination pattern image (21, 22) of the object for each illumination pattern (11, 12), - calculating at least one partial reflection image by forming an absolute value difference image of two adjacent illumination pattern images (21, 22); - ascertaining an overall reflection image by summing at least some of the partial reflection images with one another; - calculating a reflection-corrected image of the object by - summing all illumination pattern images (21, 22) to form an overall illumination pattern image, - subtracting the overall reflection image from the overall illumination pattern image to form an overall image, and - normalizing the overall image, wherein the result of the normalization of the overall image corresponds to the reflection-corrected image of the object. - illuminating an object with at least three different illumination patterns (11, 12), each illumination pattern (11, 12) having at least one active illumination source, - creating an illumination pattern image (21, 22) of the object for each illumination pattern (11, 12), - calculating at least one partial reflection image by forming an absolute value difference image of two adjacent illumination pattern images (21, 22); - ascertaining an overall reflection image by summing at least some of the partial reflection images with one another; - calculating a reflection-corrected image of the object by - summing all illumination pattern images (21, 22) to form an overall illumination pattern image, - subtracting the overall reflection image from the overall illumination pattern image to form an overall image, and - normalizing the overall image, wherein the result of the normalization of the overall image corresponds to the reflection-corrected image of the object. - summing all illumination pattern images (21, 22) to form an overall illumination pattern image, - subtracting the overall reflection image from the overall illumination pattern image to form an overall image, and - normalizing the overall image, wherein the result of the normalization of the overall image corresponds to the reflection-corrected image of the object.