mhurhangee/ep-ind-claims huggingface dataset:
A mammography imaging system, comprising: data acquisition circuitry configured to generate one or more images that are transmitted directly or indirectly to a remote processing resource configured to execute a plurality of services which each evaluate the one or more images for a different type of non-conformity and provide a notification of any identified non-conformity via an application interface, the imaging system being configured to receive one or more notifications of identified non-conformities from the plurality of services and further comprising: an operator interface and display configured to execute an application that displays said identified non-conformities of the one or more images identified by the remote processing resource; and wherein the one or more images comprise mammographic images and the types of non-conformities include one or more: absence of a breast/chest angle in an MLO view; misalignment of a nipple and pectoral muscle in an MLO view, non-centered nipple in a CC view, absence of pectoral muscle in the CC view. data acquisition circuitry configured to generate one or more images that are transmitted directly or indirectly to a remote processing resource configured to execute a plurality of services which each evaluate the one or more images for a different type of non-conformity and provide a notification of any identified non-conformity via an application interface, the imaging system being configured to receive one or more notifications of identified non-conformities from the plurality of services and further comprising: an operator interface and display configured to execute an application that displays said identified non-conformities of the one or more images identified by the remote processing resource; and wherein the one or more images comprise mammographic images and the types of non-conformities include one or more: absence of a breast/chest angle in an MLO view; misalignment of a nipple and pectoral muscle in an MLO view, non-centered nipple in a CC view, absence of pectoral muscle in the CC view. an operator interface and display configured to execute an application that displays said identified non-conformities of the one or more images identified by the remote processing resource; and wherein the one or more images comprise mammographic images and the types of non-conformities include one or more: absence of a breast/chest angle in an MLO view; misalignment of a nipple and pectoral muscle in an MLO view, non-centered nipple in a CC view, absence of pectoral muscle in the CC view.
A wind turbine blade, comprising: an outer surface; and a plurality of vortex generators formed in the outer surface; characterised in that each vortex generator includes an outer first component defining a portion of the outer surface of the blade and an inner second component defining the shape of the vortex generator and at least partially surrounded by the first component and the outer first component of each vortex generator is composed of a first material, and the inner second component of each vortex generator is composed of a second material different to the first material. an outer surface; and a plurality of vortex generators formed in the outer surface;
A safety system for an underground refuse collecting apparatus, said safety system comprising a safety platform and a lifting device for moving the safety platform between different positions, wherein the lifting device comprises a number of elastic strands, preferably two or more elastic strands, each elastic strand being connected to the safety platform, characterized in that the safety system further comprises at least one spring-loaded locking device for holding the safety platform in a defined position, said spring-loaded locking device)60) being mounted to the safety platform.
A calorific value calculation formula creating system comprising: a container into which a gas mixture, including a plurality of gases and having a predetermined calorific value, may be injected; a temperature measurement element (62,63) disposed in the container; a heater element which is disposed in the container and arranged to generate heat at a plurality of heating temperatures; a measurement module arranged to measure first values of electric signals generated from the temperature measurement element and second values of electric signals generated from the heater element at each of the heating temperatures, wherein the first values depend on temperatures of the temperature measurement element at the plurality of gases and the second values depend on temperatures of the heater element; and characterised by a formula creation module which creates a calorific value calculation formula based on the predetermined calorific values, the first values, and the second values of each of a plurality of gas mixtures, wherein the calorific value calculation formula is represented by: the first values and the second values, both of which are set as independent variables in the calorific value calculation formula; and a calorific value of a gas mixture that is set as a dependent variable in the calorific value calculation formula. a container into which a gas mixture, including a plurality of gases and having a predetermined calorific value, may be injected; a temperature measurement element (62,63) disposed in the container; a heater element which is disposed in the container and arranged to generate heat at a plurality of heating temperatures; a measurement module arranged to measure first values of electric signals generated from the temperature measurement element and second values of electric signals generated from the heater element at each of the heating temperatures, wherein the first values depend on temperatures of the temperature measurement element at the plurality of gases and the second values depend on temperatures of the heater element; and characterised by a formula creation module which creates a calorific value calculation formula based on the predetermined calorific values, the first values, and the second values of each of a plurality of gas mixtures, wherein the calorific value calculation formula is represented by: the first values and the second values, both of which are set as independent variables in the calorific value calculation formula; and a calorific value of a gas mixture that is set as a dependent variable in the calorific value calculation formula. the first values and the second values, both of which are set as independent variables in the calorific value calculation formula; and a calorific value of a gas mixture that is set as a dependent variable in the calorific value calculation formula.
Walker (1; 100) comprising a base frame supported by wheels (22; 122) and support rods (3, 4) mounted on the said base frame to support, at suitable height, support means (7, 8; 107) designed to support the patient while walking wherein the support rods (3, 4) are hinged mutually and to the base frame, in such a way to go from an operating position, in which the support means (7, 8; 107) are at a suitable height to support the patient, to a minimum volume position, in which the support means (7, 8; 107) are near the base frame, the walker comprising an upper frame, said upper frame being provided with said support means, wherein the support rods comprise at least a lower rod hinged by means of a lower hinge to the base frame and at least an upper rod, characterised in that the lower rod comprises an external pipe in which an internal pipe is arranged and the upper rod comprises an external pipe in which an internal pipe is arranged, wherein a lower end of the internal pipe of the lower rod is hinged by means of the lower hinge to said base frame and the other end of the internal pipe of the lower rod is connected to elliptical shells (34, 44), a lower end of the external pipe of the lower rod is hinged by means of the lower hinge to said base frame and the external pipe of the lower rod is connected to said elliptical shells (34, 44); wherein an upper end of the internal pipe of the upper rod is hinged by means of an upper hinge to the upper frame and the other end of the internal pipe of the upper rod is connected to said elliptical shells (34, 44), an upper end of the external pipe of the upper rod is hinged by means of the upper hinge to said upper frame and the other end of the external pipe of the upper rod is connected to said elliptical shells (34, 44), wherein the external pipes (32, 42) of the lower rod and upper rod are connected mutually by a connection rod with the ends of the connection rod hinged to the external pipes (32, 42).
Equipment cart having a supporting framework, which has at least one shelf region for receiving items of equipment and also has a base plate, wherein carrying arms provided with castors are mounted on the base plate, wherein at least one carrying arm is secured on the base plate so as to be extended and displaced in the horizontal plane of the base plate, and the base plate comprises two spaced-apart plates arranged parallel to one another, and the interspace between the two plates of the base plate can be used as additional space for accommodating items of equipment, characterized in that the castors are arranged at the free front ends of the carrying arms, said ends being remote from the base plate, and in that, starting from the bearing location of the castors, the carrying arms are angled downwards in a step-like manner in the direction of the base plate.
A method for electro-optical heterodyning, the method comprising: optically coupling a first optical signal and a second optical signal to produce a local oscillator signal propagated in two signal paths comprising a first signal path and a second signal path; electro-optically phase modulating the local oscillator signal in the first signal path and the second signal path with a radio frequency electrical signal to produce a first phase modulated optical signal and a second phase modulated optical signal respectively; and optically coupling the first phase modulated optical signal and the second phase modulated optical signal to produce an intensity modulated signal comprising an RF frequency of the radio frequency electrical signal frequency mixed by a local oscillator frequency of the local oscillator signal, wherein the intensity modulated signal is produced as a first intensity optical signal in the first signal path and a second intensity optical signal in the second signal path; and photo-detecting the first intensity optical signal as a first electrical signal; photo-detecting the second intensity optical signal as a second electrical signal; combining the first electrical signal and the second electrical signal to produce an output signal, wherein the step of combining comprises rejecting a common mode of the first electrical signal and the second electrical signal to produce the output signal. optically coupling a first optical signal and a second optical signal to produce a local oscillator signal propagated in two signal paths comprising a first signal path and a second signal path; electro-optically phase modulating the local oscillator signal in the first signal path and the second signal path with a radio frequency electrical signal to produce a first phase modulated optical signal and a second phase modulated optical signal respectively; and optically coupling the first phase modulated optical signal and the second phase modulated optical signal to produce an intensity modulated signal comprising an RF frequency of the radio frequency electrical signal frequency mixed by a local oscillator frequency of the local oscillator signal, wherein the intensity modulated signal is produced as a first intensity optical signal in the first signal path and a second intensity optical signal in the second signal path; and photo-detecting the first intensity optical signal as a first electrical signal; photo-detecting the second intensity optical signal as a second electrical signal; combining the first electrical signal and the second electrical signal to produce an output signal, wherein the step of combining comprises rejecting a common mode of the first electrical signal and the second electrical signal to produce the output signal.
A method comprising: determining, by a control system, one or more operational parameters of a motor for a winch disposed in an aerial vehicle (200, 400), wherein the winch comprises a tether (224, 402) and a spool; detecting, by the control system, in the one or more operational parameters of the motor, an operational pattern of the motor that is indicative of a particular user-interaction with the tether, wherein the particular user-interaction with the tether involves a user applying an external force to the tether; based on the detected operational pattern of the motor that is indicative of the particular user-interaction with the tether, determining, by the control system, a motor response process; and operating, by the control system, the motor in accordance with the determined motor response process. determining, by a control system, one or more operational parameters of a motor for a winch disposed in an aerial vehicle (200, 400), wherein the winch comprises a tether (224, 402) and a spool; detecting, by the control system, in the one or more operational parameters of the motor, an operational pattern of the motor that is indicative of a particular user-interaction with the tether, wherein the particular user-interaction with the tether involves a user applying an external force to the tether; based on the detected operational pattern of the motor that is indicative of the particular user-interaction with the tether, determining, by the control system, a motor response process; and operating, by the control system, the motor in accordance with the determined motor response process.
A method for two dimensional imaging of a positron emitter distribution in objects to be examined, whereby the object to be examined includes a positron emitter, whereby the object which is to be examined and includes the positron emitters is positioned in a magnetic field, characterized in that the positrons (4a, 4b) leaving the object to be examined follow the course of the magnetic field and strike a positron absorption screen, which is also positioned in the magnetic field and which, during the interaction with the positrons (4a, 4b), makes it possible to localize the impact points (5a, 5b) of the positrons (4a, 4b) on the positron absorption screen.
A handle apparatus comprising: a handle base fixable to a door of a vehicle which is maintained in a closed state while being restrained by a door lock apparatus; a swing lever heldable inside the door and connected to the handle base to be vertically rotatable, a door restraining release operation of the door lock apparatus may be carried out by rotating the swing lever from an initial rotation position to an operational rotation position; a handle main body connected to the handle base to be pulled up from an initial rotation position to an operational rotation position and including an operation arm insertable inside the door through an arm insertion hole to drive the swing lever to the operational rotation position when the handle main body is pulled up; a blocking piece that is provided on the swing lever and moves to a rear side of the arm insertion hole when the swing lever is located in the operational rotation position so that the arm insertion hole may be blocked from an inside of the door; and a rising piece protruding from a side edge of the blocking piece toward an outside of the door when the handle apparatus is fixed to the door so as to narrow a path from the outside of the door through a gap between the arm insertion hole and the blocking piece to a position around a cylinder lock for locking or unlocking the door lock apparatus when the handle main body is rotated to the operational rotation position, characterised in that the rising piece serves as a regulation wall for preventing a case in which a tool moves along the blocking piece while pressing against the front end of the blocking piece so as to search the path to the position around the cylinder lock. a handle base fixable to a door of a vehicle which is maintained in a closed state while being restrained by a door lock apparatus; a swing lever heldable inside the door and connected to the handle base to be vertically rotatable, a door restraining release operation of the door lock apparatus may be carried out by rotating the swing lever from an initial rotation position to an operational rotation position; a handle main body connected to the handle base to be pulled up from an initial rotation position to an operational rotation position and including an operation arm insertable inside the door through an arm insertion hole to drive the swing lever to the operational rotation position when the handle main body is pulled up; a blocking piece that is provided on the swing lever and moves to a rear side of the arm insertion hole when the swing lever is located in the operational rotation position so that the arm insertion hole may be blocked from an inside of the door; and a rising piece protruding from a side edge of the blocking piece toward an outside of the door when the handle apparatus is fixed to the door so as to narrow a path from the outside of the door through a gap between the arm insertion hole and the blocking piece to a position around a cylinder lock for locking or unlocking the door lock apparatus when the handle main body is rotated to the operational rotation position,
Open roof construction for a vehicle, comprising a panel and a moving mechanism intended for moving the panel between different positions, wherein the moving mechanism comprises at least a movable lever to which, by means of a pin-like member, a slide shoe is connected that, for defining a movement of the movable lever, cooperates with and moves longitudinally along a guide, wherein the pin-like member at a first end is connected to said lever and at a second end is connected to said slide shoe and wherein the guide is provided with two guide parts (12,13) at opposite sides of the pin-like member, whereas the slide shoe is provided with two slide shoe parts (14,15) at opposite sides of the pin-like member, such as to define two opposite pairs (12,14;13,15) of cooperating guide part and slide shoe part, and wherein the pin-like member at its second end is provided with an enlarged head intended for engaging the slide shoe at a side thereof facing away from the lever, wherein the dimensions of the enlarged head are such that, as seen in a direction from the enlarged head towards the lever, at least part of said enlarged head overlaps at least one guide part (12,13), characterized in that at least one pair (12,14;13,15) of cooperating guide part and slide shoe part is located between the enlarged head and the lever.
Switch system for rail-guided vehicle-based transport systems, comprising a turntable provided with a straight rail and a curved rail integral with said turntable, said turntable being rotatable about a rotating shaft, characterized in that the switch system only has one straight rail and one curved rail, with said rotating shaft being arranged such that it is shifted with respect to said straight rail and said curved rail, wherein said rotating shaft is arranged between the straight rail and the curved rail, characterized in that said rotating shaft is arranged equidistantly from respective midpoints of the straight rail and of the curved rail.
Lamp, having a light source (13, 100) and a deflecting element that is symmetrical with respect to a symmetry reference and situated in front of the light source in the direction of the irradiated light, for deflecting the light beams coming from the light source, wherein means for positioning the light source outside the symmetry reference are configured in such a way that a light cone emitted from the lamp is changeable in an exterior space, characterized in that the deflecting element is a rotationally symmetrical reflector which encloses an interior space, and the symmetry reference is an axis of symmetry, wherein a light reflector lateral surface includes a light entry aperture and a light exit aperture, and wherein the cross-sectional area of the light entry aperture is smaller than the cross-sectional area of the light exit aperture.
Filter element comprising: - a hollow filter body, and - at least one closure cap which is arranged on an axial end of the filter body, - an additional, second closure cap which, axially, is arranged on an end of the filter body that is situated opposite the closure cap, - wherein the closure cap has a passage region with a first inner diameter and has an engagement region with a second inner diameter, - wherein the first inner diameter is greater than the second inner diameter, and - wherein a tool is able to be passed from the end situated opposite the closure cap through the entire filter element and through the passage region and is able to be brought into engagement with the closure cap on the engagement region, wherein the filter element has a damping element which is fastened to a fastening region of the closure cap. - a hollow filter body, and - at least one closure cap which is arranged on an axial end of the filter body, - an additional, second closure cap which, axially, is arranged on an end of the filter body that is situated opposite the closure cap, - wherein the closure cap has a passage region with a first inner diameter and has an engagement region with a second inner diameter, - wherein the first inner diameter is greater than the second inner diameter, and - wherein a tool is able to be passed from the end situated opposite the closure cap through the entire filter element and through the passage region and is able to be brought into engagement with the closure cap on the engagement region,
A microburst-microcapsule for a smoking article, wherein the microburst-microcapsule is fillable into a body of the smoking article; the microburst-microcapsule consists of a microcapsule wall and an aerosol generation material packaged in it; wherein the material of the wall is made of metal foil, wherein the average diameter of the microburst-microcapsule is between 0.1-2 mm, preferably in 0.3-1 mm and wherein the aerosol generation materials are in weight percentage and composed mainly of the following ingredients: Propylene glycol 50%, Glycerol 30%, Tobacco extracts (dry weight) 1.5%, Nicotine 5%, Tobacco Flavors 0.5%, Ethanol 10%, Water 3%, and A trace amount of zeolite powder or alumina powder, wherein the weight of the aerosol generation material encapsulated in each microburst-microcapsule is between 0.0001mg to 5mg and whereby when the cigarette is lighted, heat generated from its combustion zone will vaporize adjacent aerosol generation materials in the microburst-microcapsule, vapor pressure causes the capsule wall to burst and aerosol generated from the aforesaid aerosol generation materials will flow out of the capsule wall. Propylene glycol 50%, Glycerol 30%, Tobacco extracts (dry weight) 1.5%, Nicotine 5%, Tobacco Flavors 0.5%, Ethanol 10%, Water 3%, and A trace amount of zeolite powder or alumina powder, wherein the weight of the aerosol generation material encapsulated in each microburst-microcapsule is between 0.0001mg to 5mg and whereby when the cigarette is lighted, heat generated from its combustion zone will vaporize adjacent aerosol generation materials in the microburst-microcapsule, vapor pressure causes the capsule wall to burst and aerosol generated from the aforesaid aerosol generation materials will flow out of the capsule wall.