mhurhangee/patent-ind-claim-en huggingface dataset:
A saw gear set comprising - a set of saw blades (2', 2"), - a saw drive , - a coupling mechanism , - a pivot axis and a force transmission point , wherein each saw blade of the set is configured to be coupled to the saw drive by means of the coupling mechanism , which coupling mechanism is configured to transmit a driving force of the saw drive to the saw blade in the force transmission point, for oscillating the saw blade around the pivot axis , wherein each saw blade of the set is configured to be pivotably borne around the pivot axis , wherein in operation, each saw blade is configured to have an oscillation angle (α) around the pivot axis which is different for each saw blade of the set depending on a pivot distance (d1) between the pivot axis and the force transmission point which varies for each saw blade of the set. - a set of saw blades (2', 2"), - a saw drive , - a coupling mechanism , - a pivot axis and a force transmission point , wherein each saw blade of the set is configured to be coupled to the saw drive by means of the coupling mechanism , which coupling mechanism is configured to transmit a driving force of the saw drive to the saw blade in the force transmission point, for oscillating the saw blade around the pivot axis , wherein each saw blade of the set is configured to be pivotably borne around the pivot axis , wherein in operation, each saw blade is configured to have an oscillation angle (α) around the pivot axis which is different for each saw blade of the set depending on a pivot distance (d1) between the pivot axis and the force transmission point which varies for each saw blade of the set.
A non-therapeutic method for controlling an artificial knee joint having an upper part and a lower part which are fastened to one another in a manner pivotable about a pivot axis and having a resistance unit which is arranged between the upper part and the lower part and which has an adjustment device by means of which the damping resistance can be varied, having a control unit which is coupled to the adjustment device and which is connected at least to a sensor , wherein the adjustment is carried out on the basis of sensor data and during the swing phase, at least one characteristic from the group containing the knee angle (KA), the knee angle velocity (KAV), the knee angle acceleration (KAA), the below-knee angle, the below-knee velocity, the below-knee acceleration, the ankle moment (AM) and the axial load (AF) is captured, characterized in that the profile of the characteristic is determined and the damping resistance is varied if, after reaching an extremum of the characteristic, the monotonic behavior of the profile of the characteristic changes within the swing phase.
A materials handling vehicle comprising materials handling hardware , a wheel , an odometer, a positioning system, and a vehicle computing device , wherein the vehicle computing device stores logic (144a; 144b; 144c; 144d; 642) that when executed by a processor , causes the materials handling vehicle to perform at least the following: determine a current location of the materials handling vehicle within a warehouse; determine, via the odometer, an odometry distance from the current location to a destination based on a calculation of a determined number of rotations of the wheel and a circumference of the wheel ; determine, via the positioning system, a positioning system distance from the current location of the materials handling vehicle to the destination; compare the odometry distance with the positioning system distance to determine a difference and calculate a scaling factor; apply the scaling factor to exponential moving average filters to determine a value from a filter output, the exponential moving average filters comprising a slow filter and a fast filter, to account for gradual wheel wear and rapid changes experienced from a wheel or tire replacement; adjust the scaling factor to the value when the difference exceeds a threshold; calculate an updated odometry distance utilizing the adjusted scaling factor; and utilize the updated odometry distance to operate the positioning system. determine a current location of the materials handling vehicle within a warehouse; determine, via the odometer, an odometry distance from the current location to a destination based on a calculation of a determined number of rotations of the wheel and a circumference of the wheel ; determine, via the positioning system, a positioning system distance from the current location of the materials handling vehicle to the destination; compare the odometry distance with the positioning system distance to determine a difference and calculate a scaling factor; apply the scaling factor to exponential moving average filters to determine a value from a filter output, the exponential moving average filters comprising a slow filter and a fast filter, to account for gradual wheel wear and rapid changes experienced from a wheel or tire replacement; adjust the scaling factor to the value when the difference exceeds a threshold; calculate an updated odometry distance utilizing the adjusted scaling factor; and utilize the updated odometry distance to operate the positioning system.
A device for measuring one or more physiological parameters of a penis, said device being characterized in comprising axial monitoring means for monitoring the axial rigidity of the penis wherein the axial monitoring means each comprise at least two sensors with a different elasticity to each other.
A three dimensional printing system comprising: a printhead for ejecting drops of phase change ink to define a three dimensional article of manufacture; an ink supply subsystem for providing the phase change ink to the printhead which includes a heated ink transport component able to flex back and forth as the printhead moves and comprising an ink tube having an inside surface for contacting and transporting the phase change ink and an outer tubular surface; characterised in that the heated ink transport component further comprises a resistor that is helically wound around the outer tubular surface of the ink tube and has an elongate rectangular cross section form factor whereby the major axis of the elongate rectangular cross section substantially conforms to the outer tubular surface, the resistor having a heater resistance; a return conductor that is helically wound around the resistor and having a resistance that is lower than the resistor ; and an outer tube that surrounds and protects the resistor and the return conductor and provides insulation to the heated ink transport component. a printhead for ejecting drops of phase change ink to define a three dimensional article of manufacture; an ink supply subsystem for providing the phase change ink to the printhead which includes a heated ink transport component able to flex back and forth as the printhead moves and comprising an ink tube having an inside surface for contacting and transporting the phase change ink and an outer tubular surface; characterised in that the heated ink transport component further comprises a resistor that is helically wound around the outer tubular surface of the ink tube and has an elongate rectangular cross section form factor whereby the major axis of the elongate rectangular cross section substantially conforms to the outer tubular surface, the resistor having a heater resistance; a return conductor that is helically wound around the resistor and having a resistance that is lower than the resistor ; and an outer tube that surrounds and protects the resistor and the return conductor and provides insulation to the heated ink transport component.
A heart valve repair system comprising: an implantable prosthetic device including a coaption element , the implantable prosthetic device being configured to attach to at least two leaflets of a native heart valve of a patient and hold the at least two leaflets in a relatively fixed position; and a connector that is separate from the implantable prosthetic device , the connector including first and second tissue anchors and being configured to be attached to the at least two leaflets of the native valve of the patient when the at least two leaflets are held by the implantable prosthetic device in the relatively fixed position, the implantable prosthetic device being configured to be detached from the at least two leaflets and removed from the patient with the connector remaining attached to the at least two leaflets . an implantable prosthetic device including a coaption element , the implantable prosthetic device being configured to attach to at least two leaflets of a native heart valve of a patient and hold the at least two leaflets in a relatively fixed position; and a connector that is separate from the implantable prosthetic device , the connector including first and second tissue anchors and being configured to be attached to the at least two leaflets of the native valve of the patient when the at least two leaflets are held by the implantable prosthetic device in the relatively fixed position, the implantable prosthetic device being configured to be detached from the at least two leaflets and removed from the patient with the connector remaining attached to the at least two leaflets .
A cleaning robot, comprising: a body , wherein a bottom of the body is provided with a dust suction port ; a water tank , disposed at a rear end of the body ; a water discharge pipeline, disposed on the body and in fluid communication with the water tank ; a cleaning unit is disposed at a bottom of the body ; a water outlet mechanism ; a bottom housing of the body ; and a dust box ; wherein, the dust suction port and the water tank are disposed in sequence in a proceeding direction (A) of the cleaning robot; characterized in that the water discharge pipeline is at least partially located directly below the dust box , to utilize a space between the dust box and the bottom wall of the robot body. a body , wherein a bottom of the body is provided with a dust suction port ; a water tank , disposed at a rear end of the body ; a water discharge pipeline, disposed on the body and in fluid communication with the water tank ; a cleaning unit is disposed at a bottom of the body ; a water outlet mechanism ; a bottom housing of the body ; and a dust box ; wherein, the dust suction port and the water tank are disposed in sequence in a proceeding direction (A) of the cleaning robot; characterized in that the water discharge pipeline is at least partially located directly below the dust box , to utilize a space between the dust box and the bottom wall of the robot body.
A computer-implemented method comprising: deriving , from radio frequency based data, pseudo sensor data representative of at least an activity of a user, the pseudo sensor data derived based on at least a machine learning model configured to transform the radio frequency based data into the pseudo sensor data, wherein the pseudo sensor data represents data derived from the radio frequency based data, rather than data obtained directly from a sensor that generates native sensor data indicative of the activity of the user; and providing the pseudo sensor data and a native sensor data to an application to enable the application to process the pseudo sensor data and the native sensor data to enable tracking the activity of the user, wherein the native sensor data is obtained directly from a sensor that generates native sensor data indicative of the activity of the user, wherein the pseudo sensor data is derived in response to at least one gap in the native sensor data, and wherein the at least one gap caused at least in part by the sensor not being able to generate the native sensor data representative of the activity of the user. deriving , from radio frequency based data, pseudo sensor data representative of at least an activity of a user, the pseudo sensor data derived based on at least a machine learning model configured to transform the radio frequency based data into the pseudo sensor data, wherein the pseudo sensor data represents data derived from the radio frequency based data, rather than data obtained directly from a sensor that generates native sensor data indicative of the activity of the user; and providing the pseudo sensor data and a native sensor data to an application to enable the application to process the pseudo sensor data and the native sensor data to enable tracking the activity of the user, wherein the native sensor data is obtained directly from a sensor that generates native sensor data indicative of the activity of the user, wherein the pseudo sensor data is derived in response to at least one gap in the native sensor data, and wherein the at least one gap caused at least in part by the sensor not being able to generate the native sensor data representative of the activity of the user.
A pumping device, particularly for a domestic water supply, to be installed in a hydraulic system, characterized in that it comprises: - a box-like body that can be closed by the connection of its walls , - a centrifugal electric pump , which has two intake connectors arranged along perpendicular directions and to be connected selectively to said hydraulic system, - a tank for a delivery liquid, which has a substantially cylindrical shape and is fixed to said centrifugal electric pump with an axis of symmetry that is substantially parallel to the axis of the pump , - a manifold , provided with a one-way valve , intended to distribute the delivery liquid to said tank and to one of two delivery connectors that are oriented along perpendicular directions and are to be connected selectively or simultaneously to said hydraulic system, - an apparatus connected to the delivery of the centrifugal electric pump by means of a connector on the intake side of the liquid and to the manifold of the discharge side, - said intake connectors and said delivery connectors being arranged in a portion delimited by three walls of the box-like body for connection to said hydraulic system. - a box-like body that can be closed by the connection of its walls , - a centrifugal electric pump , which has two intake connectors arranged along perpendicular directions and to be connected selectively to said hydraulic system, - a tank for a delivery liquid, which has a substantially cylindrical shape and is fixed to said centrifugal electric pump with an axis of symmetry that is substantially parallel to the axis of the pump , - a manifold , provided with a one-way valve , intended to distribute the delivery liquid to said tank and to one of two delivery connectors that are oriented along perpendicular directions and are to be connected selectively or simultaneously to said hydraulic system, - an apparatus connected to the delivery of the centrifugal electric pump by means of a connector on the intake side of the liquid and to the manifold of the discharge side, - said intake connectors and said delivery connectors being arranged in a portion delimited by three walls of the box-like body for connection to said hydraulic system.
A rotary latch assembly comprising: a latch release having a detent; a pawl that is rotatable relative to the latch release about a pivot axis , the pawl comprising three catches , wherein each catch is configured for individually engaging the detent to releasably hold the pawl in a fixed orientation; at least two contact surfaces offset from the pivot axis ; and at least one spring mounted to the pawl ; the pawl being rotatable relative to the latch release between a neutral orientation and at least one non-neutral orientation, the at least one spring accumulating a stored energy during rotation of the pawl toward the at least one non-neutral orientation in response to force applied to one of the at least two contact surfaces , the spring releasing the stored energy when force is removed from said one of the at least two contact surfaces to rotate the pawl toward the neutral orientation, characterized in that the pawl defines an axis of symmetry extending between a first catch of the three catches and a pivot center aligned with the pivot axis , such that the at least two contact surfaces are arranged symmetrically about the axis of symmetry and first and third catches of the three catches are also arranged symmetrically about the axis of symmetry .
A test fixture (102-1) configured to test at least one component of a printed circuit board , PCB, the test fixture (102-1) comprising: a top clamp that provides: a standard test port of the test fixture (102-1) configured to test the component; and a taper ; and a bottom clamp configured to be attached to the top clamp to retain the PCB between the top clamp and the bottom clamp for testing; characterized in that the test fixture further comprises: a shim that provides an end having a thickness that corresponds to a thickness of the PCB proximal an end of the PCB, the end of the shim providing an aperture configured to direct RF energy from the component, via the end of the PCB, to the top clamp ; wherein the taper is configured to direct the RF energy from the aperture of the shim to the standard test port . a top clamp that provides: a standard test port of the test fixture (102-1) configured to test the component; and a taper ; and a standard test port of the test fixture (102-1) configured to test the component; and a taper ; and a bottom clamp configured to be attached to the top clamp to retain the PCB between the top clamp and the bottom clamp for testing; characterized in that the test fixture further comprises: a shim that provides an end having a thickness that corresponds to a thickness of the PCB proximal an end of the PCB, the end of the shim providing an aperture configured to direct RF energy from the component, via the end of the PCB, to the top clamp ; wherein the taper is configured to direct the RF energy from the aperture of the shim to the standard test port . a shim that provides an end having a thickness that corresponds to a thickness of the PCB proximal an end of the PCB, the end of the shim providing an aperture configured to direct RF energy from the component, via the end of the PCB, to the top clamp ; wherein the taper is configured to direct the RF energy from the aperture of the shim to the standard test port .
An emulsion of an aqueous phase in an lipid phase characterized in that : a. The aqueous phase is dispersed throughout the lipid phase in the form of droplets, the lipid in the lipid phase being crystalline; and in that b. The aqueous phase comprises from 5 to 60wt% of a sweetener based on the total weight of the emulsion; and in that c. The emulsion comprises an emulsifier; and in that d. Non-fatty cocoa solids and/or non-fatty milk solids are present in the lipid phase, and in that e. The emulsion comprises from 10 to 70wt% of aqueous phase, based on the total weight of the emulsion, and from 35 to 90wt% of lipid phase, based on the total weight of the emulsion, and has a temperature of 8°C or lower, preferably of 0°C or lower. a. The aqueous phase is dispersed throughout the lipid phase in the form of droplets, the lipid in the lipid phase being crystalline; and in that b. The aqueous phase comprises from 5 to 60wt% of a sweetener based on the total weight of the emulsion; and in that c. The emulsion comprises an emulsifier; and in that d. Non-fatty cocoa solids and/or non-fatty milk solids are present in the lipid phase, and in that e. The emulsion comprises from 10 to 70wt% of aqueous phase, based on the total weight of the emulsion, and from 35 to 90wt% of lipid phase, based on the total weight of the emulsion, and has a temperature of 8°C or lower, preferably of 0°C or lower.
An intermittent urinary catheter comprising a tubular shaft extending between an insertable end and a discharge end, and a tip fixedly connected to said insertable end of the tubular shaft, wherein said tip has an outer diameter which at all places is equal to or lower than the outer diameter of the tubular shaft , and wherein the hardness of the tip is equal to or lower than 60 micro Shore A, characterized in that the tubular shaft has a micro Shore A hardness in the range 75-95, and in that the tip has a rounded tip end.
Treatment device for aneurysms affecting the area connecting the thoracic-abdominal aorta and the arteries and/or its main branches comprising: - a fenestrated stent graft endoprosthesis comprising a main channel and secondary openings , the main channel being suitable to be inserted in a main blood vessel (V1) at the point of an aneurysm and of a secondary blood vessel (V2), - a first guide wire suitable to be inserted in said endoprosthesis when inside said blood vessel (V1), through said main channel and one of said secondary openings , and characterised in that it comprises: - a second guide wire suitable to be inserted inside said main blood vessel (V1) and said secondary blood vessel (V2), - first magnetic means placed at said first guide wire , - second magnetic means placed at said second guide wire , - said first and second magnetic means being suitable to mutually attract each other. - a fenestrated stent graft endoprosthesis comprising a main channel and secondary openings , the main channel being suitable to be inserted in a main blood vessel (V1) at the point of an aneurysm and of a secondary blood vessel (V2), - a first guide wire suitable to be inserted in said endoprosthesis when inside said blood vessel (V1), through said main channel and one of said secondary openings , - a second guide wire suitable to be inserted inside said main blood vessel (V1) and said secondary blood vessel (V2), - first magnetic means placed at said first guide wire , - second magnetic means placed at said second guide wire , - said first and second magnetic means being suitable to mutually attract each other.
A method of controlling a laser source to deliver laser energy through a medical device , comprising: adjusting a laser source parameter including at least one of a laser power, a laser energy, a frequency, and a pulse width of the laser source , wherein the laser source parameters are adjustable through a first action or series of actions on a foot pedal assembly operably coupled to a laser control unit ; and activating the laser source , wherein the activation of the laser source includes a second action or series of actions on the foot pedal assembly , wherein the second series of actions is different from the first action or actions, wherein the foot pedal assembly includes a plurality of foot actuators , characterized in that the first action or series of actions on the foot pedal assembly includes an action on the foot pedal assembly to toggle through the laser source parameters on a user interface display menu or an action on the foot pedal assembly to increase or decrease a selected laser source parameter on the user interface display menu. adjusting a laser source parameter including at least one of a laser power, a laser energy, a frequency, and a pulse width of the laser source , wherein the laser source parameters are adjustable through a first action or series of actions on a foot pedal assembly operably coupled to a laser control unit ; and activating the laser source , wherein the activation of the laser source includes a second action or series of actions on the foot pedal assembly , wherein the second series of actions is different from the first action or actions, wherein the foot pedal assembly includes a plurality of foot actuators , characterized in that the first action or series of actions on the foot pedal assembly includes an action on the foot pedal assembly to toggle through the laser source parameters on a user interface display menu or an action on the foot pedal assembly to increase or decrease a selected laser source parameter on the user interface display menu.