mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for supplying a fluid to a device for tightening or loosening fasteners including: a first fluid-transmitting element (130, 930) having a first axis (A 100, A 900) rotatably connectable with a housing of the device about the first axis (A 100, A 900); a second fluid-transmitting element (140, 940) rotatably connectable with the first element (130, 930) about a second axis (B 100, B 900); a third fluid-transmitting element (150, 950) rotatably connectable with the second element (140, 940) about a third axis (C 100, C 900) and connectable with a fluid-transmitting line; wherein the second axis (B 100, B 900) is substantially perpendicular to the first axis (A 100, A 900); and wherein the third axis (C 100, C 900) is substantially perpendicular to the second axis (B 100, B 900), and further including first and second fluid conduits (121, 122; 921, 922) that each transfer fluid to and from the device and the fluid-transmitting line through the first, second and third element (130, 140, 150; 930, 940, 950). a first fluid-transmitting element (130, 930) having a first axis (A 100, A 900) rotatably connectable with a housing of the device about the first axis (A 100, A 900); a second fluid-transmitting element (140, 940) rotatably connectable with the first element (130, 930) about a second axis (B 100, B 900); a third fluid-transmitting element (150, 950) rotatably connectable with the second element (140, 940) about a third axis (C 100, C 900) and connectable with a fluid-transmitting line; wherein the second axis (B 100, B 900) is substantially perpendicular to the first axis (A 100, A 900); and wherein the third axis (C 100, C 900) is substantially perpendicular to the second axis (B 100, B 900), and further including first and second fluid conduits (121, 122; 921, 922) that each transfer fluid to and from the device and the fluid-transmitting line through the first, second and third element (130, 140, 150; 930, 940, 950).
A carbon dioxide separating and collecting system comprising: an absorbing tower configured to cause an absorbing liquid to absorb carbon dioxide, and discharge a rich liquid which is the absorbing liquid which has absorbed the carbon dioxide; a regenerating tower configured to cause the absorbing liquid to release a gas containing the carbon dioxide, and discharge the released gas and a lean liquid which is the absorbing liquid having a dissolved carbon dioxide concentration lower than a dissolved carbon dioxide concentration of the rich liquid; and a regenerative heat exchanger configured to heat the rich liquid flowing between the absorbing tower and the regenerating tower by using heat of the lean liquid flowing between the regenerating tower and the absorbing tower, wherein a discharge port (A 3) of the rich liquid of the regenerative heat exchanger is disposed at a higher position than a supply port (A 4) of the rich liquid of the regenerating tower, so that the rich liquid discharged from the regenerative heat exchanger contains a descending flow by which a value of liquid head pressure loss in a path from the discharge port to the supply port becomes negative, and an absolute value of the liquid head pressure loss becomes larger than an absolute value of flow friction pressure loss in the path from the discharge port to the supply port, and to make the pressure in the regenerative heat exchanger equal to or lower than the pressure at which the rich liquid discharged from the regenerative heat exchanger contains a descending gas-liquid two-phase flow. an absorbing tower configured to cause an absorbing liquid to absorb carbon dioxide, and discharge a rich liquid which is the absorbing liquid which has absorbed the carbon dioxide; a regenerating tower configured to cause the absorbing liquid to release a gas containing the carbon dioxide, and discharge the released gas and a lean liquid which is the absorbing liquid having a dissolved carbon dioxide concentration lower than a dissolved carbon dioxide concentration of the rich liquid; and a regenerative heat exchanger configured to heat the rich liquid flowing between the absorbing tower and the regenerating tower by using heat of the lean liquid flowing between the regenerating tower and the absorbing tower, wherein a discharge port (A 3) of the rich liquid of the regenerative heat exchanger is disposed at a higher position than a supply port (A 4) of the rich liquid of the regenerating tower, so that the rich liquid discharged from the regenerative heat exchanger contains a descending flow by which a value of liquid head pressure loss in a path from the discharge port to the supply port becomes negative, and an absolute value of the liquid head pressure loss becomes larger than an absolute value of flow friction pressure loss in the path from the discharge port to the supply port, and to make the pressure in the regenerative heat exchanger equal to or lower than the pressure at which the rich liquid discharged from the regenerative heat exchanger contains a descending gas-liquid two-phase flow.
A method for purification of oil, said method comprising the steps of: - providing separation aid from a separation aid dosing device and oil to be purified from at least one feed tank to at least one sedimentation tank (21; 121a, 121b, 121c), wherein the separation aid is liquid at the temperature at which the process is carried out and will by chemical interactions absorb contaminating solids or dissolved impurities in the oil to be purified and wherein the separation aid composition is substantially insoluble in the oil to be purified because of its polar properties, forming a two-phase mixture upon mixing with the oil to be purified and wherein the separation aid has a density different from that of the oil to be purified; - waiting for allowing a sludge phase to sediment to a bottom part of the sedimentation tank (21; 121a, 121b, 121c), said sludge phase comprising the separation aid together with impurities from the oil; - removing an oil phase not comprising said sludge phase from the at least one sedimentation tank through at least one oil phase outlet (39a, 39b; 139a, 139b, 139c) of the sedimentation tank; and - filtering through a depth filter said oil phase for removing any possible remaining separation aid and impurities, wherein said depth filter is built from a cellulose fiber powder. - providing separation aid from a separation aid dosing device and oil to be purified from at least one feed tank to at least one sedimentation tank (21; 121a, 121b, 121c), wherein the separation aid is liquid at the temperature at which the process is carried out and will by chemical interactions absorb contaminating solids or dissolved impurities in the oil to be purified and wherein the separation aid composition is substantially insoluble in the oil to be purified because of its polar properties, forming a two-phase mixture upon mixing with the oil to be purified and wherein the separation aid has a density different from that of the oil to be purified; - waiting for allowing a sludge phase to sediment to a bottom part of the sedimentation tank (21; 121a, 121b, 121c), said sludge phase comprising the separation aid together with impurities from the oil; - removing an oil phase not comprising said sludge phase from the at least one sedimentation tank through at least one oil phase outlet (39a, 39b; 139a, 139b, 139c) of the sedimentation tank; and - filtering through a depth filter said oil phase for removing any possible remaining separation aid and impurities, wherein said depth filter is built from a cellulose fiber powder.
A foundation providing point bearing for a structure, comprising: - a planking disposed at the bottom of an excavation formed in a ground, the planking extending laterally at the periphery (18A, 18B) towards at least one side wall (10A, 10B) of the excavation, - a point bearing support assembly (22, 24, 26) for the structure attached to the planking and extending into the excavation from the bottom starting from the planking to the surface, and - a backfill material filling the excavation to the surface, characterized in that it further comprises a plurality of redans (30A, 30B; 30A 1, 30B 1, 30A 2, 30B 2, 30A 3, 30B 3, 30A 4, 30B 4, 30A 5, 30B 5), each of which extends laterally into the ground, from the periphery (18A, 18B) of the planking to which it is attached, beyond the said at least one side wall (10A, 10B) of the excavation. - a planking disposed at the bottom of an excavation formed in a ground, the planking extending laterally at the periphery (18A, 18B) towards at least one side wall (10A, 10B) of the excavation, - a point bearing support assembly (22, 24, 26) for the structure attached to the planking and extending into the excavation from the bottom starting from the planking to the surface, and - a backfill material filling the excavation to the surface,
A geared turbomachine, which via a gearing integrates a drive unit and multiple output units (A1, A2, A3, A4, A5, A7) to form a machine train and the gearing comprises a housing, wherein the gearing substantially comprises a central bull gear having a bull gear shaft and multiple pinions (10, 14, 15) with pinion shafts (11, 16, 17) and a drive pinion, which are arranged in the housing, wherein between the bull gear and one of the pinions (10, 14, 15) the drive pinion with a driveshaft is arranged, which is operatively connected to the bull gear and one of the pinions (10, 14, 15), and wherein the drive pinion is operatively connected to a drive unit, wherein the bull gear is operatively connected to the pinions (10, 14, 15) and the ends of the pinion shafts (11, 16, 17) in each case are operatively connected to a drive unit and/or output unit (A1, A2, A3, A4, A5), wherein the bull gear shaft is operatively connected to a drive unit and/or output unit, wherein the drive pinion is mounted on the driveshaft and is in mesh with a first pinion, which is non-rotatably mounted on a first pinion shaft and at the end of the pinion shaft an impeller is mounted and the drive pinion, on the side facing away from the pinion, is in mesh with the bull gear, which is non-rotatably mounted on a shaft mounted in the housing, characterized in that the impeller of the pinion shaft is non-rotatably connected to a single or multi-stage floatingly mounted axial expander, which comprises a housing and a flow inlet region, wherein the axial expander, in the region of its axial housing start, is flanged to the housing of the gearing, so that via the pinion shafts of the geared turbomachine a non-rotatable connection with the axial expander is formed and inflow passages of the axial expander for the hot process medium to be expanded of the same, are located radially on the axial housing start of the axial expander, so that the flow inlet region of the axial expander directly adjoins the housing of the gearing and a transition region between axial expander and gearing can be cooled by a cooling medium in that the housing of the axial expander and/or the housing of the gearing contain passages for the cooling medium in the transition region.
A device for controlling a swinging of a load of mass m suspended from a motorized slidable element (19,20) which can move along a substantially horizontal axis, the controlling device comprising a control unit and an inertial platform, the inertial platform being able to detect representative values of an inclination angle of a cable that supports the load with respect to the vertical and being provided with means for communicating the values to the control unit, wherein the control unit is provided with means to measure and control the speed of the motorized slidable element (19,20) and is able to process the values representative of the inclination angle of the cable with respect to the vertical so as to calculate and to impart control actions in order to dynamically control the speed of the motorized slidable element (19,20) as a function of a desired inclination angle of the cable with respect to the vertical, characterized in that the control unit comprises a gain scheduled proportional controller provided with means to calculate a variable gain to be applied to the control of the speed of the motorized slidable element (19,20) as a function of a distance of the load from the motorized slidable element (19,20), the distance being comprised between a maximum and a minimum value, whereby the variable gain is calculated as a function of the distance (h) of the load from the motorized slidable element (19,20) by multiplying the difference error between the monitored inclination angle and the desired inclination angle by a coefficient K p ( h) dependent on the distance h of the load from the motorized slidable element (19,20), the distance h being always comprised in a range h max and h min within which the mass m can move along a vertical axis, in order to obtain two values K p_max and K p_min to be applied at the maximum and minimum values h max and h min and by calculating the value of K p ( h) by means of the following formula: K p h = K p _ min + K p _ max − K p _ min ∗ h − h min h max − h min
A print head drive circuit configured to drive a print head including 1500 or more ejection modules each having an ejection portion having a piezoelectric element configured to be driven by a drive signal and configured to eject a liquid on a medium; and a changeover switch for switching whether or not to supply the drive signal to the piezoelectric element, with a selection signal (DATA) including a first information block and a second information block for selecting whether or not to drive the piezoelectric element, and a switching timing signal for changing a logic level to control a switching timing of the changeover switch, wherein the print head drive circuit is configured to output the first information block in which a logic level of the selection signal (DATA) changes without changing a logic level of the switching timing signal, in a first period (Ta), change the logic level of the switching timing signal, and not change the logic level of the selection signal (DATA) in a second period after the first period (Ta), and output the second information block in which the logic level of the selection signal (DATA) changes without changing the logic level of the switching timing signal in a third period (Tb) after the second period; and characterized in that the first information block and the second information block consists of data for one printing cycle. a changeover switch for switching whether or not to supply the drive signal to the piezoelectric element, with a selection signal (DATA) including a first information block and a second information block for selecting whether or not to drive the piezoelectric element, and a switching timing signal for changing a logic level to control a switching timing of the changeover switch, wherein the print head drive circuit is configured to output the first information block in which a logic level of the selection signal (DATA) changes without changing a logic level of the switching timing signal, in a first period (Ta), change the logic level of the switching timing signal, and not change the logic level of the selection signal (DATA) in a second period after the first period (Ta), and output the second information block in which the logic level of the selection signal (DATA) changes without changing the logic level of the switching timing signal in a third period (Tb) after the second period; and characterized in that the first information block and the second information block consists of data for one printing cycle.
An aircraft ice detection and deicing ("IDD") system, comprising: a heating susceptor operative to increase temperature in response to an eddy current; a detecting susceptor having a Curie temperature configured to change magnetic properties of the detecting susceptor at a desired temperature; a coil operative to induce eddy currents in the heating susceptor in response to a change in the magnetic properties of the detecting susceptor as the temperature of the susceptor changes from above the Curie temperature to below the Curie temperature; and a concentrator operative to interact and modify a magnetic flux created by the coil to focus the magnetic flux towards the heating susceptor. a heating susceptor operative to increase temperature in response to an eddy current; a detecting susceptor having a Curie temperature configured to change magnetic properties of the detecting susceptor at a desired temperature; a coil operative to induce eddy currents in the heating susceptor in response to a change in the magnetic properties of the detecting susceptor as the temperature of the susceptor changes from above the Curie temperature to below the Curie temperature; and a concentrator operative to interact and modify a magnetic flux created by the coil to focus the magnetic flux towards the heating susceptor.
A light source apparatus comprising: a plurality of light source modules each including at least one light source unit; light guide lines connected respectively to said light source units; and a casing accommodating said plurality of light source modules and said light guide lines, wherein said light guide lines are led from said light source units such that none of the others of said light source modules intervenes in the path of said light guide lines when viewed in a direction perpendicular to an array direction of said plurality of light source modules, said plurality of light source modules are separately attachable and detachable in said direction perpendicular to said array direction of said plurality of light source modules, and said light guide lines are led from said light source units along said array direction of said plurality of light source modules into a space between said plurality of light source modules and a bottom surface portion of said casing, so as to extend on said bottom surface portion of said casing; wherein each of said light source modules include a plurality of light source units coupled to each other in said direction perpendicular to said array direction of said plurality of light source modules; and wherein each of said light source units includes a cooling unit for radiating heat generated by a light source portion, said cooling unit has a refrigerant channel, and said refrigerant channels of said plurality of light source units form a continuous channel. a plurality of light source modules each including at least one light source unit; light guide lines connected respectively to said light source units; and a casing accommodating said plurality of light source modules and said light guide lines, wherein said light guide lines are led from said light source units such that none of the others of said light source modules intervenes in the path of said light guide lines when viewed in a direction perpendicular to an array direction of said plurality of light source modules, said plurality of light source modules are separately attachable and detachable in said direction perpendicular to said array direction of said plurality of light source modules, and said light guide lines are led from said light source units along said array direction of said plurality of light source modules into a space between said plurality of light source modules and a bottom surface portion of said casing, so as to extend on said bottom surface portion of said casing; wherein each of said light source modules include a plurality of light source units coupled to each other in said direction perpendicular to said array direction of said plurality of light source modules; and wherein each of said light source units includes a cooling unit for radiating heat generated by a light source portion, said cooling unit has a refrigerant channel, and said refrigerant channels of said plurality of light source units form a continuous channel.
A multilayer PVC-free surface covering comprising a PVC-free support layer comprising a fibre veil having a specific weight comprised between 17 to 75 g/m 2 on the side intended to contact, in use, the surface to cover, said fibre veil comprising a polyolefin-based binder impregnation at a weight comprised between 5 to 25 g/m 2.
A busbar adapter having a lower covering element (200, 200') which on the lower face thereof comprises at least one fastening element for fastening the busbar adapter to one or more busbars, and an upper covering element (400, 400', 400'') for fastening electrical devices, which can be connected detachably to the lower covering element (200, 200'), the busbar adapter also comprising a locking device (300, 300') which, when in the locking position thereof, prevents displacement of the upper covering element (400, 400', 400'') relative to the lower covering element (200, 200') in a direction parallel to the longitudinal axis of the lower covering element (200, 200'), characterised in that one (400, 400', 400'') of the covering elements (200, 200', 400, 400', 400"), either the upper covering element (400, 400', 400'') or the lower covering element (200, 200'), has two end walls (440, 442), each having at least one opening (460, 462), and the other (200, 200') of the covering elements (200, 200', 400, 400', 400'') has two end walls (240, 242), each having at least one protrusion (260, 262), wherein the end walls are in each case situated on the longitudinal ends of the lower covering element or of the upper covering element or at a distance from the longitudinal ends in the longitudinal direction between the longitudinal ends of the covering elements, wherein the lower covering element (200, 200') and the upper covering element (400, 400', 400'') are designed such that the upper covering element (400, 400', 400'') can be placed onto the lower covering element (200, 200') in a movement direction relative to the lower covering element (200, 200'), so that it can be brought into a use position, wherein this relative movement direction comprises at least one movement component parallel to the longitudinal axis of the lower covering element (200, 200'), so that, when the busbar adapter is in the use position, the protrusions (260, 262) of the other covering element (200, 200') at least partially project into associated openings (460, 462) in the one covering element (400, 400', 400").
A lancet device comprising: a housing comprising a forward end and a rearward end; a lancet structure comprising a puncturing element, the lancet structure at least partially disposed within the housing and adapted for movement between a pre-actuated position wherein the puncturing element is retained within the housing and a puncturing position wherein at least a portion of the puncturing element extends through the forward end of the housing; and a wicking element disposed on a portion of the lancet device; characterized in that a protective cover removably covering the puncturing element of the lancet structure, the protective cover includes a post portion and the wicking element is disposed on a portion of the post portion. a housing comprising a forward end and a rearward end; a lancet structure comprising a puncturing element, the lancet structure at least partially disposed within the housing and adapted for movement between a pre-actuated position wherein the puncturing element is retained within the housing and a puncturing position wherein at least a portion of the puncturing element extends through the forward end of the housing; and a wicking element disposed on a portion of the lancet device; characterized in that a protective cover removably covering the puncturing element of the lancet structure, the protective cover includes a post portion and the wicking element is disposed on a portion of the post portion.