mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a lube basestock from a feedstock of biological origin containing triglycerides, the method comprising: contacting the feedstock in a single reactor in the presence of hydrogen with catalyst components comprising a first catalyst and a second catalyst, wherein the first catalyst comprises a basic material selected from the group consisting of hydrotalcites, basic metal oxide selected from MgO, CaO, BaO, ZnO, MnO 2 and K 2 CO 3 supported on SiO 2 or ZrO 2, K 2 CO 3 supported on TiO 2, and mixed rare earth metal oxide selected from La 2 O 3, CeO 2, Y 2 O 3, Sm 2 O 3, P r2 O 3, La 2 O 3 /ZrO 2, ZnO/La 2 O 3, Y 2 O 3 /ZrO 2, CeO 2 /ZrO 2, and La 2 O 3 /SiO 2, and wherein the second catalyst comprises a hydrogenation catalyst comprising a metal hydrogenation component selected from Ni, Co, Pd, Pt, Ru, Rh, Co-Mo, Ni-Mo, Ni-W, and Co-W supported on zeolite selected from the group consisting of ZSM-22, ZSM-12, ZSM-23, ZSM-4, ZSM-48 and ZSM-50 and a hydrothermally stable binder comprising TiO 2, ZrO 2 or CeO 2.
A computer-implemented method of checking headpath data for a layup operation in which fibre reinforcement material is applied over a tool by an applicator roller of an applicator head biased against the tool along a compaction axis by a compaction force, the applicator head being mounted on a support by a resilient mount so that it is translatable with respect to the resilient mount along the compaction axis, the method comprising: receiving baseline headpath data defining a baseline headpath position of the applicator head relative the tool for applying fibre reinforcement material onto a substrate surface by the applicator roller; determining a head displacement (604, 704) relative to the respective headpath positions along the compaction axis corresponding to an equilibrium condition between the compaction force and a reaction force through the fibre reinforcement material applied by the applicator roller; and checking (606, 706) for at least one of: a non-compacted portion of fibre reinforcement material along a lateral extent of the applicator roller based on a deformation profile of the applicator roller at the equilibrium condition; and an intersection of the applicator head and an obstacle, based on the head displacement distance. receiving baseline headpath data defining a baseline headpath position of the applicator head relative the tool for applying fibre reinforcement material onto a substrate surface by the applicator roller; determining a head displacement (604, 704) relative to the respective headpath positions along the compaction axis corresponding to an equilibrium condition between the compaction force and a reaction force through the fibre reinforcement material applied by the applicator roller; and a non-compacted portion of fibre reinforcement material along a lateral extent of the applicator roller based on a deformation profile of the applicator roller at the equilibrium condition; and an intersection of the applicator head and an obstacle, based on the head displacement distance.
A scaffold ledger comprising two ledger heads located at opposite end of an elongate horizontal member extending between and being mechanically secured to each ledger head; each ledger head comprising, a support portion (22. 24) for coupling to a structural member of a scaffold post; a body extending inwardly and upwardly from said support portion (22. 24) coupling one end of said horizontal member at a position above said support portion(22. 24); and characterized in that each ledger head further comprises a pivoting cover movable between a raised position providing top down access to said support portion (22. 24) and a working position wherein a top surface of said cover is generally aligned with a top surface of said horizontal member. each ledger head comprising, a support portion (22. 24) for coupling to a structural member of a scaffold post; a body extending inwardly and upwardly from said support portion (22. 24) coupling one end of said horizontal member at a position above said support portion(22. 24); and characterized in that each ledger head further comprises a pivoting cover movable between a raised position providing top down access to said support portion (22. 24) and a working position wherein a top surface of said cover is generally aligned with a top surface of said horizontal member.
A vane pump, comprising: a liner defining a cammed inner surface; a rotor rotatably disposed within the liner and including a plurality of vane slots; an a plurality of vanes (107, 109) slidably disposed within vane slots of the rotor and configured to extend away from the rotor and contact the cammed inner surface of the liner, wherein the plurality of vanes (107, 109) include at least one sentinel vane that is configured to allow detection of wear on the sentinel vane; wherein the sentinel vane includes a base portion that is larger than the vane slot of the rotor such that after the sentinel vane wears a predetermined amount, the base portion prevents the sentinel vane from extending further from the rotor such that a gap separates a sentinel vane tip and a portion of the cammed inner surface; characterised in that the vane pump further comprises a vibration sensor operatively connected to the rotor to determine when the base portion of the at least one sentinel vane contacts the rotor. a liner defining a cammed inner surface; a rotor rotatably disposed within the liner and including a plurality of vane slots; an a plurality of vanes (107, 109) slidably disposed within vane slots of the rotor and configured to extend away from the rotor and contact the cammed inner surface of the liner, wherein the plurality of vanes (107, 109) include at least one sentinel vane that is configured to allow detection of wear on the sentinel vane; wherein the sentinel vane includes a base portion that is larger than the vane slot of the rotor such that after the sentinel vane wears a predetermined amount, the base portion prevents the sentinel vane from extending further from the rotor such that a gap separates a sentinel vane tip and a portion of the cammed inner surface; characterised in that the vane pump further comprises a vibration sensor operatively connected to the rotor to determine when the base portion of the at least one sentinel vane contacts the rotor.
A method for achieving a call transfer from one device to another device by a soft handoff across different networks assisted by an end-to-end application protocol, running on user agents, the method comprising: communicating between a first user agent (202, 1102a) and a second user agent (202, 1102b) using a first communication link through a first network; negotiating to use a second communication link for the same call; establishing the second communication link through a second network between a third user agent (202, 1102c) and the second user agent while maintaining the first communication link; sending from the second user agent related data through the first communication link to the first user agent and through the second communication link to the third user agent, the related data being for the same call; dropping the first communication link at the first user agent; and continuing communication using the second communication link between the third user agent and the second user agent; wherein the negotiating is performed between the first user agent and the second user agent in order to establish a new connection for the call using the third user agent, said third user agent establishing the second communication link. communicating between a first user agent (202, 1102a) and a second user agent (202, 1102b) using a first communication link through a first network; negotiating to use a second communication link for the same call; establishing the second communication link through a second network between a third user agent (202, 1102c) and the second user agent while maintaining the first communication link; sending from the second user agent related data through the first communication link to the first user agent and through the second communication link to the third user agent, the related data being for the same call; dropping the first communication link at the first user agent; and continuing communication using the second communication link between the third user agent and the second user agent; wherein the negotiating is performed between the first user agent and the second user agent in order to establish a new connection for the call using the third user agent, said third user agent establishing the second communication link.
A decorative light guide element, comprising - a planar light guide element, - a light source for coupling light into the light guide element, wherein - a planar decorative element is arranged on a first side of the light guide element and an intermediate layer is arranged between the light guide element and the decorative element, which intermediate layer has a lower refractive index than the material of the light guide element in order to prevent outcoupling of light, characterized in that - a microstructure layer for coupling light out of the light guide element is arranged on the opposite side of the light guide element, as a result of which the light guide element does not illuminate the decorative element, wherein - the microstructures of the microstructure layer are formed as indented structures which are evenly arranged on the surface of the light guide element and project from the surface of the light guide element. - a planar light guide element, - a light source for coupling light into the light guide element, wherein - a planar decorative element is arranged on a first side of the light guide element and an intermediate layer is arranged between the light guide element and the decorative element, which intermediate layer has a lower refractive index than the material of the light guide element in order to prevent outcoupling of light, characterized in that - a microstructure layer for coupling light out of the light guide element is arranged on the opposite side of the light guide element, as a result of which the light guide element does not illuminate the decorative element, wherein - the microstructures of the microstructure layer are formed as indented structures which are evenly arranged on the surface of the light guide element and project from the surface of the light guide element.
A medicament for use in the treatment of a disease or a condition of the eye of a subject, wherein said medicament is provided as a plurality of ejected droplets generated by an ejector device having an ejector plate coupled to a piezoelectric actuator, wherein the droplets have an average droplet size that is in the range of about 20 microns to about 100 microns in diameter; and the droplets have an average droplet ejecting velocity of between 0.5 m/s and 20 m/s; and wherein between about 80% to about 100% of the ejected mass of said droplets is deposited on the eye, wherein the medicament is selected from the group consisting of ranibizumab antibody FAB (including Lucentis), VEGF Trap fusion molecule (including VEGF Trap-Eye), microplasmin enzyme (including Ocriplasmin), macugen pegylated polypeptide (including Pegaptanib), bevacizumab (including Avastin), carboxymethylcellulose sodium, tetrahydrozoline HCl, pheniramine maleate, ketotifen fumarate, oxymetazoline HCl, naphazoline HCl, moxifloxacin hydrochloride, bromfenac, proparacaine hydrochloride, difluprednate, gatifloxacin, travoprost, bepotastine besilate, gatifloxacin, loteprednol etabonate, timolol ophthalmic, olopatadine hydrochloride, phenylephrine hydrochloride, levofloxacin, ketorolac tromethamine, letanoprost, bimatoprost, BAK free latanoprost, fluorosilicone acrylate, sodium carboxymethylcellulose, hydroxypropyl methylcellulose, carboxymethylcellulose sodium, propylene glycol, hypromellose, zinc sulfate, dorzolamide, HCl timolol maleate, azithromycin, nepafenac, brinzolamide, besifloxacin, prenisone acetate, tobramycin, gentamycin, tobramycin/dexamethasone, cyclosporine, timolol maleate, and brimonidine tartrate.
An electronic device comprising: a mounting plate; a first component and a second component disposed on the mounting plate; a substrate disposed on the mounting plate; a third component (600, 611, 612, 206, 800, 920, 930) disposed on the mounting plate and electrically connected to the substrate; and wherein at least one of the first component and the second component comprises a stylus; characterized in that the substrate has a portion disposed between the first component and the second component; wherein the portion comprises a first extension part protruding and extending between the first component and the second component and electrically coupled to the third component; wherein at least one sensor is disposed on the substrate; wherein the at least one sensor is configured to respond to a movement of the first component or the second component. a mounting plate; a first component and a second component disposed on the mounting plate; a substrate disposed on the mounting plate; a third component (600, 611, 612, 206, 800, 920, 930) disposed on the mounting plate and electrically connected to the substrate; and wherein at least one of the first component and the second component comprises a stylus; characterized in that the substrate has a portion disposed between the first component and the second component; wherein the portion comprises a first extension part protruding and extending between the first component and the second component and electrically coupled to the third component; wherein at least one sensor is disposed on the substrate; wherein the at least one sensor is configured to respond to a movement of the first component or the second component.
A method for mixing with a static mixer a heat-dissipating material comprising a thermally conductive resin composition, wherein the thermally conductive resin composition comprises a resin component and a thermally conductive filler, wherein the method for mixing a heat-dissipating material comprises a step of determining a capacity of the static mixer based on an injection amount per process unit time, a process unit time (td) and a time during which the viscosity of the heat-dissipating material flowing out of the static mixer becomes twice the initial mixing viscosity, wherein the heat-dissipating material is sequentially injected into first and second external devices with the static mixer, and the process unit time is the difference between the time on which the heat-dissipating material starts to be injected into the second external device and the time on which the heat-dissipating material starts to be injected into the first external device, wherein the capacity of the static mixer is determined by Equation 1 below: V < t 2 / td * Q, and wherein the time during which the initial mixing viscosity is doubled is 1 to 10 minutes. wherein the method for mixing a heat-dissipating material comprises a step of determining a capacity of the static mixer based on an injection amount per process unit time, a process unit time (td) and a time during which the viscosity of the heat-dissipating material flowing out of the static mixer becomes twice the initial mixing viscosity, wherein the heat-dissipating material is sequentially injected into first and second external devices with the static mixer, and the process unit time is the difference between the time on which the heat-dissipating material starts to be injected into the second external device and the time on which the heat-dissipating material starts to be injected into the first external device, wherein the capacity of the static mixer is determined by Equation 1 below: V < t 2 / td * Q, and wherein the time during which the initial mixing viscosity is doubled is 1 to 10 minutes.
A method of modifying dissolution rate of a plurality of particles, the method comprising: providing a plurality of particles having a solubility in an aqueous-based solvent; adding hydrophobic surface modified nanoparticles; and exposing the plurality of particles to the aqueous-based solvent, wherein the plurality of particles combined with the hydrophobic surface modified nanoparticles have a modified dissolution rate in the aqueous-based solvent relative to a dissolution rate of the plurality of particles in the aqueous-based solvent without the presence of hydrophobic surface modified nanoparticles. providing a plurality of particles having a solubility in an aqueous-based solvent; adding hydrophobic surface modified nanoparticles; and exposing the plurality of particles to the aqueous-based solvent,
A light emitting device comprising: a first electrode; a hole injection layer in contact with the first electrode; a hole transporting layer in contact with the hole injection layer; a hole blocking layer in contact with the hole transporting layer; an electron transporting layer in contact with the hole blocking layer; a second electrode in contact with the electron transporting layer; and a pattern of a plurality of semiconductor nanocrystals characterized in that the plurality of semiconductor nanocrystals include a mixture of red, green and blue light emitting nanocrystals between the hole transporting layer and the hole blocking layer, wherein the nanocrystals are patterned, wherein the plurality of nanocrystals includes at least three distinct colour emissions when excited, and wherein each emission has a frequency that corresponds to the band gap of the quantum confined semiconductor material, the band gap being a function of the size of the nanocrystal. a first electrode; a hole injection layer in contact with the first electrode; a hole transporting layer in contact with the hole injection layer; a hole blocking layer in contact with the hole transporting layer; an electron transporting layer in contact with the hole blocking layer; a second electrode in contact with the electron transporting layer; and a pattern of a plurality of semiconductor nanocrystals characterized in that the plurality of semiconductor nanocrystals include a mixture of red, green and blue light emitting nanocrystals between the hole transporting layer and the hole blocking layer, wherein the nanocrystals are patterned, wherein the plurality of nanocrystals includes at least three distinct colour emissions when excited, and wherein each emission has a frequency that corresponds to the band gap of the quantum confined semiconductor material, the band gap being a function of the size of the nanocrystal.
A compound of the formula: wherein R 1 is -CH 3 or -CH 2 CH 3; or a pharmaceutically acceptable salt thereof. wherein R 1 is -CH 3 or -CH 2 CH 3; or a pharmaceutically acceptable salt thereof.
A waste exhaust ventilation door automatic control device, comprising a core body, one or more inner door bodies and one or more outer door bodies; wherein the core body is fixed on a ventilation opening of the waste exhaust ventilation door, a top of the outer door body is movably hinged on an outer side of the core body, and a bottom of the inner door body is movably hinged on an inner side of the core body; when there is no pressure fluctuation outside the core body, the outer door body and inner door body will open, and when there is pressure fluctuation outside the core body, the outer door body and/or the inner door body will be closed automatically due to a pressure difference between inside and outside the core body, wherein, in case there is pressure fluctuation outside the core body, the outer door body is closed when an air pressure outside the core body is greater than that inside the core body; the inner door body is closed when the air pressure outside the core body is smaller than that inside the core body; and characterized in that the outer door body and the inner door body are both closed when the air pressure outside the core body is equal to that inside the core body. the outer door body is closed when an air pressure outside the core body is greater than that inside the core body; the inner door body is closed when the air pressure outside the core body is smaller than that inside the core body; and characterized in that the outer door body and the inner door body are both closed when the air pressure outside the core body is equal to that inside the core body.
A short-circuiting device for use in low-voltage and medium-voltage systems for protecting parts and personnel, comprising a switching element which can be operated by the tripping signal of a fault detection device, two mutually opposite contact electrodes (8; 9) having power supply means (2; 3), wherein contact can be made with said contact electrodes at an electrical circuit having connections at different potentials, furthermore, in at least one of the contact electrodes, a moving contact part which is under mechanical prestress and executes a movement to the further contact electrode in a manner assisted by spring force in the event of a short-circuit, a sacrificial element (5; 32) as spacer between the contact electrodes (8; 9) and also having an electrical connection between the sacrificial element (5; 32) and the switching element on the one hand and one of the contact electrodes on the other hand, in order to cause current flow-induced thermal deformation or destruction of the sacrificial element (5; 32) in a targeted, manner, wherein the movable contact part is in the form of a hollow cylinder which is closed on one side, and a spring for generating prestress is inserted in the hollow cylinder, the hollow cylinder is guided in a movable manner in a complementary cutout in the first contact electrode so as to form a sliding contact, characterized in that in the region of the base of the closed hollow cylinder, the cylinder wall of said hollow cylinder turns into a cone on its outer circumferential side, furthermore, starting from the base, a first pin-like extension which is situated opposite a second pin-like projection which is insulated from the contact electrodes (8; 9) is arranged in the interior of the hollow cylinder, wherein the sacrificial element, in the form of a bolt or screw (5; 32), is arranged between the first and the second pin-like projection (62; 100), and a cutout which is matched to the external cone of the movable contact and has an internal cone is provided in the second contact electrode, wherein the external cone and internal cone form a bounce-free short-circuit contact region with a force-fitting and interlocking connection on account of the plastic deformation which occurs.