mhurhangee/ep-ind-claims huggingface dataset:
An open vertical wind tunnel comprising: - a frame structure, wherein at least some sections between beams of the frame structure are covered by perforated metal plates and a hollow volume in the frame structure enclosed by the perforated metal plates is filed with sound absorbing material; - a power unit attached to the frame structure; - a fan assembly; - a flow straightening assembly comprising: - a vertical cylindrical housing mounted above and coaxially with the fan assembly, wherein a part of an inner surface of the vertical cylindrical housing is inclined and perforated, and a hollow volume in the vertical cylindrical housing is filled with sound absorbing material; - a central cone disposed within and coaxially with the vertical cylindrical housing, wherein a lateral surface of said central cone is perforated and a hollow volume in said central cone is filled with sound absorbing material; and - a plurality of radially oriented vertically disposed guide vanes, wherein each guide vane is attached to an inner surface of the vertical cylindrical housing and the central cone; and - a flight platform comprising a safety net and safety cushion there around. - a frame structure, wherein at least some sections between beams of the frame structure are covered by perforated metal plates and a hollow volume in the frame structure enclosed by the perforated metal plates is filed with sound absorbing material; - a power unit attached to the frame structure; - a fan assembly; - a flow straightening assembly comprising: - a vertical cylindrical housing mounted above and coaxially with the fan assembly, wherein a part of an inner surface of the vertical cylindrical housing is inclined and perforated, and a hollow volume in the vertical cylindrical housing is filled with sound absorbing material; - a central cone disposed within and coaxially with the vertical cylindrical housing, wherein a lateral surface of said central cone is perforated and a hollow volume in said central cone is filled with sound absorbing material; and - a plurality of radially oriented vertically disposed guide vanes, wherein each guide vane is attached to an inner surface of the vertical cylindrical housing and the central cone; and - a vertical cylindrical housing mounted above and coaxially with the fan assembly, wherein a part of an inner surface of the vertical cylindrical housing is inclined and perforated, and a hollow volume in the vertical cylindrical housing is filled with sound absorbing material; - a central cone disposed within and coaxially with the vertical cylindrical housing, wherein a lateral surface of said central cone is perforated and a hollow volume in said central cone is filled with sound absorbing material; and - a plurality of radially oriented vertically disposed guide vanes, wherein each guide vane is attached to an inner surface of the vertical cylindrical housing and the central cone; and - a flight platform comprising a safety net and safety cushion there around.
A method of separating a product including a super absorbent polymer, a fiber and a plastic into components thereof, the method comprising separating the product in a substantially dry environment into a super absorbent polymer component, a fiber component and the plastic component; and - adding a composition comprising a material that cross-links SAP to the plastic component. - adding a composition comprising a material that cross-links SAP to the plastic component.
A system to determine and navigate a surgical plan relative to an anatomy, comprising: an instrument operable to assist in performing the surgical plan; a tracking device (266, 260) operable to be interconnected with the instrument; a tracking system operable to track the tracking device wherein a location of the instrument is operable to be determined at least in part based upon the tracked position of the tracking device; a planning processor operable to: automatically identify anatomical landmarks including at least an anterior commissure and a posterior commissure in image data of the anatomy; automatically determine a sub-thalamic nucleus that is a functional anatomical target, based upon the identified anatomical landmarks; and determine a path through the anatomy based upon the image data of the anatomy to reach the anatomical target; and a display (228,130) operable to display at least one of a planned path, an icon illustrating the position of the instrument, an icon illustrating the entire path of the instrument at an instant in time, the image data of the anatomy, or combinations thereof. an instrument operable to assist in performing the surgical plan; a tracking device (266, 260) operable to be interconnected with the instrument; a tracking system operable to track the tracking device wherein a location of the instrument is operable to be determined at least in part based upon the tracked position of the tracking device; a planning processor operable to: automatically identify anatomical landmarks including at least an anterior commissure and a posterior commissure in image data of the anatomy; automatically determine a sub-thalamic nucleus that is a functional anatomical target, based upon the identified anatomical landmarks; and determine a path through the anatomy based upon the image data of the anatomy to reach the anatomical target; and automatically identify anatomical landmarks including at least an anterior commissure and a posterior commissure in image data of the anatomy; automatically determine a sub-thalamic nucleus that is a functional anatomical target, based upon the identified anatomical landmarks; and determine a path through the anatomy based upon the image data of the anatomy to reach the anatomical target; and a display (228,130) operable to display at least one of a planned path, an icon illustrating the position of the instrument, an icon illustrating the entire path of the instrument at an instant in time, the image data of the anatomy, or combinations thereof.
A method of operating a fluid working machine, the fluid working machine comprising a working chamber of cyclically varying volume, a high pressure manifold, and an actuated high pressure valve for regulating the flow of fluid between the working chamber and the high pressure manifold, the actuated high pressure valve comprising a moveable valve member, operable between a closed position in which the actuated high pressure valve seals the working chamber from the high pressure manifold and at least one open position in which the working chamber is in fluid communication with the high pressure manifold through the actuated high pressure valve, and a controllable opening mechanism (6, 46) operable to provide an active urging force to urge the moveable valve member from the said closed position towards at least one said open position, the volume of the working chamber varying between a maximum volume and a minimum volume, the method characterised in that the controllable opening mechanism provides the active urging force more than once while the volume of the working chamber is intermediate the maximum of chamber volume and the minimum of chamber volume.
An optical device comprising; a waveguide structure (182, 184, 186, 188, 190) comprising a reflective diffractive optical element (282, 284, 286, 288, 290) forming an incoupling optical element configured to redirect incident light at angles such that the light propagates through the waveguide structure by total internal reflection, wherein the diffractive optical element comprises: a plurality of protrusions on a surface of the waveguide; and a reflective layer on surfaces of the protrusions, wherein the reflective layer is formed of reflective flowable material comprising reflective ink, wherein a thickness of the reflective layer varies between different portions of that layer, and wherein a reflectivity of the diffractive optical element varies between said different portions. a waveguide structure (182, 184, 186, 188, 190) comprising a reflective diffractive optical element (282, 284, 286, 288, 290) forming an incoupling optical element configured to redirect incident light at angles such that the light propagates through the waveguide structure by total internal reflection, wherein the diffractive optical element comprises: a plurality of protrusions on a surface of the waveguide; and a reflective layer on surfaces of the protrusions, wherein the reflective layer is formed of reflective flowable material comprising reflective ink, a plurality of protrusions on a surface of the waveguide; and a reflective layer on surfaces of the protrusions, wherein the reflective layer is formed of reflective flowable material comprising reflective ink, wherein a thickness of the reflective layer varies between different portions of that layer, and wherein a reflectivity of the diffractive optical element varies between said different portions.
A method of making an optical device, comprising: forming elements and a first and second hole (220, 222) at selected locations on a printed wiring board using a printed wiring board manufacturing technique to control a tolerance for the locations of the elements and the first and second hole (220, 222); securing a light source to the printed wiring board at the elements; securing the printed wiring board to a part that includes an optical structure formed thereon using the first and second hole (220, 222) of the printed wiring board and a hole and a slot in the part by inserting a first pin into the first hole and the slot, and inserting a second pin into the second hole and the hole; and moving the printed wiring board with respect to the part to adjust a distance between light source and the optical structure. forming elements and a first and second hole (220, 222) at selected locations on a printed wiring board using a printed wiring board manufacturing technique to control a tolerance for the locations of the elements and the first and second hole (220, 222); securing a light source to the printed wiring board at the elements; securing the printed wiring board to a part that includes an optical structure formed thereon using the first and second hole (220, 222) of the printed wiring board and a hole and a slot in the part by inserting a first pin into the first hole and the slot, and inserting a second pin into the second hole and the hole; and
A sandal comprising a first strap for holding the heel arranged to bear against the rear of said heel and at least one second strap forming a portion of the upper intended to be applied at least in part substantially on the instep, one end of which is integral with said sole, said sandal comprising means for securing a portion of said second strap substantially adjacent to the second end of said second strap with said first strap, slidably mounted on said first strap so that to take at least two positions: - a wearing position, substantially vertical to said heel, in which said second strap is stretched and support the lower side of said heel pressed against the sole, and - at least one retracted position, in which said second strap is loose, allowing a shrinkage or vice versa an at least partial introduction of the foot into said sandal, characterised in that said securing means comprise at least one loop surrounding said first strap. - a wearing position, substantially vertical to said heel, in which said second strap is stretched and support the lower side of said heel pressed against the sole, and - at least one retracted position, in which said second strap is loose, allowing a shrinkage or vice versa an at least partial introduction of the foot into said sandal, characterised in that said securing means comprise at least one loop surrounding said first strap.
Suction nozzle for a portable hard surface cleaning device for squeegeeing off and suctioning off liquid from a hard surface, in particular from a window pane, comprising a suction nozzle housing having a first and a second housing half-shell (76, 78) and having a suction opening which has a least one flexible squeegee lip (92, 94) arranged thereat and which is adjoined by a suction duct which extends to a suction duct end section, wherein a source of vacuum is connectable to the suction duct end section for creating a suction flow and wherein a latch element is arranged at the suction duct end section, characterized in that the first housing half-shell comprises an elastically deformable wall section which forms the latch element, wherein the first housing half-shell forms an injection-moulded part having a hard component and an elastomer component, wherein the elastically deformable wall section is formed by the hard component in the form of a spring tongue which, except for a first end region thereof, is surrounded by a through-slot extending through the hard component, and wherein the through-slot is covered by the elastomer component integrally formed on the hard component.
A container comprising a propylene, ethylene, 1-butene terpolymer wherein in the terpolymer: i) the content of ethylene derived units ranges from 0.5 wt% to 1.8 wt%; ii) the content of 1-butene derived units ranges from 3.5 wt% to 6.5 wt%; iii) the ratio C2wt%/C4wt% ranges from 0.12 to 0.22; wherein C2wt% is the weight per cent of ethylene derived units and C4wt% is the weight per cent of 1-butene derived units; iv) the total content of ethylene and 1-butene derived units is comprised between 4.2 wt% and 7.5 wt%; v) the melt flow rate,MFR measured according to ISO 1133,230° C, 2.16 kg ranges from 20 to 80 g/10 min; vi) the xylene soluble fraction at 25°C is lower than 7.0 wt%; vii) the melting point is higher than 140°C. i) the content of ethylene derived units ranges from 0.5 wt% to 1.8 wt%; ii) the content of 1-butene derived units ranges from 3.5 wt% to 6.5 wt%; iii) the ratio C2wt%/C4wt% ranges from 0.12 to 0.22; wherein C2wt% is the weight per cent of ethylene derived units and C4wt% is the weight per cent of 1-butene derived units; iv) the total content of ethylene and 1-butene derived units is comprised between 4.2 wt% and 7.5 wt%; v) the melt flow rate,MFR measured according to ISO 1133,230° C, 2.16 kg ranges from 20 to 80 g/10 min; vi) the xylene soluble fraction at 25°C is lower than 7.0 wt%; vii) the melting point is higher than 140°C.
A method for configuring a controlling device to control operations of a target device, comprising: using data indicative of a geographic region in which the controlling device is to be used and data indicative of a type and a brand for the target device to identify one or more commands that are to be used to configure the controlling device to control operations of the target device; and configuring the controlling device by causing the one or more of the identified commands to be assigned to at least one favorites key of a key matrix of the controlling device whereupon activation of the at least one favorites key of the key matrix causes the controlling device to transmit to the target device the one or more identified commands assigned to the activated at least one favorites key of the key matrix and thereby control a tuning operation of the target device, wherein the data indicative of the geographic region is also used to automatically select a service in use and the method comprises using channel line up information for the selected service to configure channel number assignments by directly assigning the one or more commands to the at least one favorites key. using data indicative of a geographic region in which the controlling device is to be used and data indicative of a type and a brand for the target device to identify one or more commands that are to be used to configure the controlling device to control operations of the target device; and configuring the controlling device by causing the one or more of the identified commands to be assigned to at least one favorites key of a key matrix of the controlling device whereupon activation of the at least one favorites key of the key matrix causes the controlling device to transmit to the target device the one or more identified commands assigned to the activated at least one favorites key of the key matrix and thereby control a tuning operation of the target device, wherein the data indicative of the geographic region is also used to automatically select a service in use and the method comprises using channel line up information for the selected service to configure channel number assignments by directly assigning the one or more commands to the at least one favorites key.
Steam cooker system with a base shell and with a shell-shaped cover separate therefrom, which can be placed onto the base shell such that a closed steam cooking compartment is formed, wherein the shell shape of the base shell or of the cover is formed such that the other component (2, 3), in its inverted state in which the loading opening (10, 20) of this shell-shaped component (2, 3) is facing away from the receiving component (2, 3), slots into the receiving component (2, 3) to a depth corresponding to at least 50%, in particular at least 60%, of its height, wherein the cover has a shell collar wall, characterised in that the shell collar wall, viewed in the width direction (x), has a first collar side wall and a second collar side wall opposite thereto, wherein a first guide web (11, 12) protruding laterally when viewed in the width direction (x) and extending in a straight line when viewed in the depth direction (z) of the steam cooker system is arranged on an outer side of the first collar side wall and on an outer side of the second collar side wall respectively, wherein the base shell has a shell collar wall which, viewed in the width direction (x), has a first collar side wall and a second collar side wall opposite thereto, wherein a second guide web (17, 18) protruding laterally when viewed in the width direction (x) and extending in a straight line when viewed in the depth direction (z) of the steam cooker system is arranged on an outer side of the first collar side wall and on an outer side of the second collar side wall respectively, which guide web is formed to position and guide the base shell on a guide unit (36, 37) in the cooking compartment of a cooking appliance, wherein in the state in which the cover is resting on the base shell a vertical spacing between a first guide web (11, 12) of the cover and a second guide web (17, 18) of the base shell measures between 11 mm and 15 mm, in particular between 12 mm and 14 mm.
A method for separating and recovering some or all natural gas liquids (NGLs): ethane, propane, butane, pentane, or heavier hydrocarbons from a natural gas feedstream forming a methane-rich natural gas supply and then flaring said methane-rich natural gas supply, wherein the NGLs are separated from the natural gas feedstream by means of a NGLs separation unit, wherein the NGLs separation unit comprises: (i) an adsorption unit comprising an adsorption bed comprising an adsorbent media which adsorbs NGLs to form a loaded adsorbent media and (ii) a regeneration unit comprising a means to regenerate loaded adsorbent media by causing the release of adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media wherein the method comprises the steps of: (a) passing the natural gas feedstream through the adsorption unit generating the adsorbent loaded with NGLs and a methane-rich natural gas supply, (b) transporting the adsorbent loaded with NGLs from the adsorption unit to the regeneration unit, (c) regenerating the adsorbent loaded with NGLs by releasing the adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media, (d) transporting the regenerated adsorbent media back to the adsorption unit for reuse, (e) recovering the released NGLs, and (f) flaring the methane-rich natural gas supply, wherein the adsorption media is a porous cross-linked polymeric adsorbent, a partially pyrolized macroporous polymer, or mixtures thereof. (i) an adsorption unit comprising an adsorption bed comprising an adsorbent media which adsorbs NGLs to form a loaded adsorbent media and (ii) a regeneration unit comprising a means to regenerate loaded adsorbent media by causing the release of adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media wherein the method comprises the steps of: (a) passing the natural gas feedstream through the adsorption unit generating the adsorbent loaded with NGLs and a methane-rich natural gas supply, (b) transporting the adsorbent loaded with NGLs from the adsorption unit to the regeneration unit, (c) regenerating the adsorbent loaded with NGLs by releasing the adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media, (d) transporting the regenerated adsorbent media back to the adsorption unit for reuse, (e) recovering the released NGLs, and (f) flaring the methane-rich natural gas supply, (a) passing the natural gas feedstream through the adsorption unit generating the adsorbent loaded with NGLs and a methane-rich natural gas supply, (b) transporting the adsorbent loaded with NGLs from the adsorption unit to the regeneration unit, (c) regenerating the adsorbent loaded with NGLs by releasing the adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media, (d) transporting the regenerated adsorbent media back to the adsorption unit for reuse, (e) recovering the released NGLs, and (f) flaring the methane-rich natural gas supply,
An electrical assembly for electrical equipment, in particular an inverter, comprising: - a support comprising a cooling module configured to dissipate heat emitted by a capacitor; said capacitor, configured to filter a DC electrical signal, comprising at least one capacitive coil and at least one electrical connection bar (12, 13) attached to said at least one capacitive coil, said at least one electrical connection bar (12, 13) having connection terminals (14A, 14B) - a power module having connection terminals; - a separator element disposed between the connection capacity and the cooling module, the separator element comprises, - an indexing member configured to index directly, respectively, to the connection terminals (14A, 14B) of the capacitor and the connection terminals of the power module, so as to ensure centering of the connection terminals (14A, (14A, 14B) of the capacitor and the connection terminals of the power module, so as to ensure centring of the connection terminals (14A, 14B) of the capacitor directly with respect to the connection terminals of the power module, wherein the indexing member is formed by centring walls made of the material of the separator element. - a support comprising a cooling module configured to dissipate heat emitted by a capacitor; said capacitor, configured to filter a DC electrical signal, comprising at least one capacitive coil and at least one electrical connection bar (12, 13) attached to said at least one capacitive coil, said at least one electrical connection bar (12, 13) having connection terminals (14A, 14B) - a power module having connection terminals; - a separator element disposed between the connection capacity and the cooling module, the separator element comprises, - an indexing member configured to index directly, respectively, to the connection terminals (14A, 14B) of the capacitor and the connection terminals of the power module, so as to ensure centering of the connection terminals (14A, (14A, 14B) of the capacitor and the connection terminals of the power module, so as to ensure centring of the connection terminals (14A, 14B) of the capacitor directly with respect to the connection terminals of the power module, wherein the indexing member is formed by centring walls made of the material of the separator element.