mhurhangee/ep-ind-claims huggingface dataset:
A fuel dispenser (106; 206; 306; 506; 606) comprising a cabinet; a first nozzle (222, 224; 322, 324; 422, 424; 522, 524; 622, 624); and a first hose (120; 220; 420; 520; 620) coupled with the first nozzle (222, 224; 322, 324; 422, 424; 522, 524; 622, 624); characterised in that said fuel dispenser (106; 206; 306; 506; 606) further comprises a heating system (100; 200; 300; 400; 500; 600) configured for heating a fluid, said heating system comprising: a central compartment (236; 536; 636) having an inlet configured to receive a fuel additive from a storage tank storing the fuel additive and an outlet configured to allow the fuel additive to exit the central compartment (236; 536; 636); and an elongated sleeve (240, 242; 540, 542; 640, 642) coupled with the central compartment (236; 536; 636), the elongated sleeve (240, 242; 540, 542; 640, 642) being configured to circulate said heated fluid therein and circumscribing the hose (120; 220; 420; 520; 620) which is configured to carry the fuel additive, such that the circulating heating fluid heats the fuel additive carried by the hose (120; 220; 420; 520; 620); and in that the central compartment (236; 536; 636) forms an enclosure with a volume that is less than a cabinet volume of the cabinet in which the central compartment (236; 536; 636) is located in the fuel dispenser (106; 206; 306; 506; 606). a central compartment (236; 536; 636) having an inlet configured to receive a fuel additive from a storage tank storing the fuel additive and an outlet configured to allow the fuel additive to exit the central compartment (236; 536; 636); and an elongated sleeve (240, 242; 540, 542; 640, 642) coupled with the central compartment (236; 536; 636), the elongated sleeve (240, 242; 540, 542; 640, 642) being configured to circulate said heated fluid therein and circumscribing the hose (120; 220; 420; 520; 620) which is configured to carry the fuel additive, such that the circulating heating fluid heats the fuel additive carried by the hose (120; 220; 420; 520; 620); and
A device for checking and/or calibrating a component, comprising: a sample holder having a module for receiving at least one component; at least one magnetic field generator (60a, 60b, 60c) for generating a magnetic field around the module; an inlet for feeding a tempered medium into the module; and an outlet for discharging a tempered medium from the module, wherein the sample holder has at least one inlet opening for guiding the tempered medium from the inlet into the module and at least one outlet opening for discharging the tempered medium from the module to the outlet, wherein the at least one component is arranged between the inlet opening and the outlet opening, and wherein the inlet and the outlet are arranged such that the sample holder can be positioned between the inlet and the outlet. a sample holder having a module for receiving at least one component; at least one magnetic field generator (60a, 60b, 60c) for generating a magnetic field around the module; an inlet for feeding a tempered medium into the module; and an outlet for discharging a tempered medium from the module, wherein the sample holder has at least one inlet opening for guiding the tempered medium from the inlet into the module and at least one outlet opening for discharging the tempered medium from the module to the outlet, wherein the at least one component is arranged between the inlet opening and the outlet opening, and wherein the inlet and the outlet are arranged such that the sample holder can be positioned between the inlet and the outlet.
An apparatus for the production of plastics material liquid containers filled with a liquid product with a conveying device which conveys the plastics material containers along a pre-set conveying path, with a shaping device which shapes plastics material pre-forms into the plastics material containers, with a first filling device which is arranged downstream of the shaping device along the conveying path and which fills the plastics material containers with a liquid product, and with a cooling device which is arranged between the shaping device and the first filling device and which cools at least one area of the wall of the plastics material containers by acting upon it with a flowable medium, wherein the cooling device has a second filling device which fills a liquid into the container, which liquid is used for cooling a base area of the plastics material container characterized in that the apparatus has a metering device by which a portion of the product to be filled so the liquid for cooling is metered by means of the second filling device into the plastics material containers.
A vacuum pump, in particular a turbomolecular pump, comprising a rotor shaft rotatable about an axis of rotation; and an electric motor having a stator fixed to a housing of the vacuum pump and having a rotor coupled to the rotor shaft, wherein the stator and the rotor are provided for a rotating driving of the rotor shaft, characterized in that the electric motor, and indeed its stator, is configured such that it brings about a force on the rotor shaft, in particular on the rotor coupled to the rotor shaft, said force revolving synchronously with the rotor shaft and in particular acting in the radial direction, with a residual imbalance of the rotor shaft which likewise revolves synchronously being able to be at least approximately compensated by means of the force, and with at least one operating parameter of the electric motor for setting the force by magnitude and/or phasing and/or for setting the revolution speed of the force about the axis of rotation being adjustable by means of a control, with the stator having auxiliary windings arranged offset from one another, viewed in the peripheral direction of the stator, with the control being able to supply each of the auxiliary windings with an electric current to produce a magnetic field in order to produce the force at least substantially through an interaction of the magnetic fields produced by the auxiliary windings with the magnetic field of the rotor of the electric motor, and with the stator having four auxiliary windings which are arranged offset from one another by at least approximately 90 degrees in the peripheral direction.
Cryogen-gas liquefaction system comprising: - a storage container comprising a liquid storage portion and a neck portion extending therefrom, the liquid storage portion being adapted to contain a liquefied gas bath at the bottom of the storage container and comprising a liquefaction region above said bath, wherein the gas to be liquefied exchanges heat with the liquefaction system; - a coldhead arranged at the neck portion comprising one or more refrigeration stages (10, 11) and a refrigeration compressor for distributing compressed gas-phase cryogen inside the coldhead, wherein said cryogen gas is supplied to and returned from the coldhead and acts as refrigeration means for lowering the temperature of one or more refrigeration stages (10, 11) of the coldhead; - a pressure control mechanism for controlling the cryogen gas pressure within the liquefaction region of the storage container; characterized in that the coldhead further comprises: - one or more extraction orifices communicating a gas circulation circuit inside the coldhead with the external region of the refrigeration stages (10, 11), acting as pass-through ports which allow the gas inside the coldhead to flow out to the liquefaction region of the storage container; - a gas injection source connected with the gas circulation circuit of said refrigeration compressor through a gas injection valve, wherein said gas injection valve is used for controlling the pressure within the coldhead. - a storage container comprising a liquid storage portion and a neck portion extending therefrom, the liquid storage portion being adapted to contain a liquefied gas bath at the bottom of the storage container and comprising a liquefaction region above said bath, wherein the gas to be liquefied exchanges heat with the liquefaction system; - a coldhead arranged at the neck portion comprising one or more refrigeration stages (10, 11) and a refrigeration compressor for distributing compressed gas-phase cryogen inside the coldhead, wherein said cryogen gas is supplied to and returned from the coldhead and acts as refrigeration means for lowering the temperature of one or more refrigeration stages (10, 11) of the coldhead; - a pressure control mechanism for controlling the cryogen gas pressure within the liquefaction region of the storage container; - one or more extraction orifices communicating a gas circulation circuit inside the coldhead with the external region of the refrigeration stages (10, 11), acting as pass-through ports which allow the gas inside the coldhead to flow out to the liquefaction region of the storage container; - a gas injection source connected with the gas circulation circuit of said refrigeration compressor through a gas injection valve, wherein said gas injection valve is used for controlling the pressure within the coldhead.
Glass-ceramic component, having an angled portion which connects two sheet-like legs (31, 32) to one another at an angle along a bending section running in the direction of a component height, wherein the angled section has a convex bending region in the region of an outer side of the component, which bending region has an outer bending radius (Ra) and wherein the bending section has elevations at its two longitudinal end regions (E1, E2), characterized in that the maximum extent of the projections at the longitudinal end regions (E1, E2) in the radial direction of the convex bending region, relative to the apex of the outer bending radius (Ra) at a distance of 15 mm from the respectively associated longitudinal end (E1, E2), is greater than 0 mm and less than 0.7 mm. wherein the angled section has a convex bending region in the region of an outer side of the component, which bending region has an outer bending radius (Ra) and wherein the bending section has elevations at its two longitudinal end regions (E1, E2), characterized in that the maximum extent of the projections at the longitudinal end regions (E1, E2) in the radial direction of the convex bending region, relative to the apex of the outer bending radius (Ra) at a distance of 15 mm from the respectively associated longitudinal end (E1, E2), is greater than 0 mm and less than 0.7 mm.
A stud weldable rebar comprising: a steel bar extending along an axis from a first end to a second end and comprised of a material composition having: 0.080 - 0.330 wt. % of carbon; 0.001 - 1.56 wt. % of manganese; less than 0.043 wt. % of phosphorus; less than 0.053 wt. % of sulphur; 0.001 - 0.550 wt. % of silicon; 0.001 - 0.050 wt. % of molybdenum; 0.001 - 0.060 wt. % of aluminum; and 0.001 - 0.080 wt. % of vanadium; said steel bar including a base portion disposed adjacent said first end having a base diameter to define a base cross-sectional area of said base portion of said steel bar; said steel bar including an upset portion disposed adjacent said second end; said upset portion having an upset diameter being greater than said base diameter to define an upset cross-sectional area of said upset portion of said steel bar being greater than said base cross-sectional area; said material composition of said steel bar having a carbon equivalency between 0.31 and 0.43; and said upset cross-sectional area being approximately 13.5% to 22.5% greater than said base cross-sectional area. a steel bar extending along an axis from a first end to a second end and comprised of a material composition having: 0.080 - 0.330 wt. % of carbon; 0.001 - 1.56 wt. % of manganese; 0.080 - 0.330 wt. % of carbon; 0.001 - 1.56 wt. % of manganese; less than 0.043 wt. % of phosphorus; less than 0.053 wt. % of sulphur; 0.001 - 0.550 wt. % of silicon; 0.001 - 0.050 wt. % of molybdenum; 0.001 - 0.060 wt. % of aluminum; and 0.001 - 0.080 wt. % of vanadium; 0.001 - 0.550 wt. % of silicon; 0.001 - 0.050 wt. % of molybdenum; 0.001 - 0.060 wt. % of aluminum; and 0.001 - 0.080 wt. % of vanadium; said steel bar including a base portion disposed adjacent said first end having a base diameter to define a base cross-sectional area of said base portion of said steel bar; said steel bar including an upset portion disposed adjacent said second end; said upset portion having an upset diameter being greater than said base diameter to define an upset cross-sectional area of said upset portion of said steel bar being greater than said base cross-sectional area; said material composition of said steel bar having a carbon equivalency between 0.31 and 0.43; and said upset cross-sectional area being approximately 13.5% to 22.5% greater than said base cross-sectional area.
- Wall-mounted sanitary equipment, comprising a support supporting: - water supply means; - a tap support means, configured to receive a tap carrying a rotatable dispensing head, said tap support means being configured to sealingly connect the tap to the water supply means; - a means of collecting wastewater; and - a platform having a bottom and a peripheral edge surrounding at least part of the bottom so that the platform is configured to form a basin under the dispensing head of the tap, the wastewater collection means comprising a funnel having an upper collection opening for collecting wastewater from the platform, the funnel further comprising a lower discharge end sealingly connected to a wastewater receiving means, the bottom of the platform being pivotally mounted between two positions, a first position said storage, wherein said platform is folded in a vertical position, and a second position, said use, wherein said platform is held horizontally by a stop means to serve as a basin that guides the water distributed by the tap to the wastewater collection means, the bottom of the platform extending, in the position of use, overhanging above the collection opening of the funnel, the peripheral edge of the bottom overhanging above the collection opening of the funnel having at least one opening to allow the wastewater from the platform to pass to the funnel, the wall-mounted sanitary equipment further comprising a filtering means disposed on a filter support and configured to filter the wastewater before passing to the means for receiving the wastewater, the funnel comprising at least one opening configured to allow passage of the water supplying means in a sealed manner therethrough, characterized in that the filter support means comprises at least one opening configured to allow passage of the water supply means therethrough. - water supply means; - a tap support means, configured to receive a tap carrying a rotatable dispensing head, said tap support means being configured to sealingly connect the tap to the water supply means; - a means of collecting wastewater; and - a platform having a bottom and a peripheral edge surrounding at least part of the bottom so that the platform is configured to form a basin under the dispensing head of the tap,
Method for simultaneously forming and filling a container by injecting a pressurized liquid in a preform, said container having a container volume, the pressurized liquid being injected from a pressurized liquid source to the preform along an liquid injection circuit while the preform is in a molding cavity defining the shape of the container, the method comprising: - a first injection step, wherein a first predetermined volume of the pressurized liquid is injected into the preform, said predetermined volume corresponding to a fraction of the container volume, said first injection step causing an expansion of the preform into a first intermediate container, characterized in that the method further comprises: - a second injection step, wherein, once the first predetermined volume of liquid has been injected, the liquid injection speed is reduced and the pressurized liquid is further injected in the first intermediate container until a predetermined switch pressure (Pp) in the liquid injection circuit is reached, said second injection step causing an expansion of the first intermediate container into a second intermediate container, and - a third injection step starting once the predetermined switch pressure (Pp) is reached, wherein the liquid injection speed is decelerated until the liquid injection is stopped and the second intermediate container has expanded up to said shape of the container. - a first injection step, wherein a first predetermined volume of the pressurized liquid is injected into the preform, said predetermined volume corresponding to a fraction of the container volume, said first injection step causing an expansion of the preform into a first intermediate container, - a second injection step, wherein, once the first predetermined volume of liquid has been injected, the liquid injection speed is reduced and the pressurized liquid is further injected in the first intermediate container until a predetermined switch pressure (Pp) in the liquid injection circuit is reached, said second injection step causing an expansion of the first intermediate container into a second intermediate container, and - a third injection step starting once the predetermined switch pressure (Pp) is reached, wherein the liquid injection speed is decelerated until the liquid injection is stopped and the second intermediate container has expanded up to said shape of the container.
A laser diode vertical epitaxial structure, comprising: a transverse waveguide comprising an active layer between an n-type semiconductor layer and a p-type semiconductor layer wherein the transverse waveguide is bounded by a lower index n-cladding layer on an n-side of the transverse waveguide and a lower index p-cladding layer on a p-side of the transverse waveguide; a lateral waveguide that is orthogonal to the transverse waveguide, wherein the lateral waveguide is bounded in a longitudinal direction at a first end by a facet coated with a high reflector, HR, coating and at a second end by a facet coated with a partial reflector, PR, coating; and a higher order mode suppression layer, HOMSL, (702; 802; 902; 1002; 1102; 1202; 1302) disposed adjacent to at least one lateral side of the lateral waveguide and that extends in a longitudinal direction, wherein the lateral waveguide is confined by current injection with gain guiding; wherein the current injection is configured to enable higher order mode suppression via gain tailoring; wherein the gain tailoring is directed from an n-metal contact (2114; 2214; 2314; 2414; 2514; 2614; 2714; 2814; 2914) on the n-side of the laser diode epitaxial structure to the p-metal contact on the p-side of the epitaxial structure; wherein the n-metal contact (2214; 2414; 2614; 2714; 2914) is narrower in the lateral direction than the p-metal contact in the lateral direction; or wherein a first edge of the n-metal contact (2114; 2314; 2514) aligns to a center-plane of an emitter face of the laser diode epitaxial structure. a transverse waveguide comprising an active layer between an n-type semiconductor layer and a p-type semiconductor layer wherein the transverse waveguide is bounded by a lower index n-cladding layer on an n-side of the transverse waveguide and a lower index p-cladding layer on a p-side of the transverse waveguide; a lateral waveguide that is orthogonal to the transverse waveguide, wherein the lateral waveguide is bounded in a longitudinal direction at a first end by a facet coated with a high reflector, HR, coating and at a second end by a facet coated with a partial reflector, PR, coating; and a higher order mode suppression layer, HOMSL, (702; 802; 902; 1002; 1102; 1202; 1302) disposed adjacent to at least one lateral side of the lateral waveguide and that extends in a longitudinal direction, wherein the lateral waveguide is confined by current injection with gain guiding; wherein the current injection is configured to enable higher order mode suppression via gain tailoring; wherein the gain tailoring is directed from an n-metal contact (2114; 2214; 2314; 2414; 2514; 2614; 2714; 2814; 2914) on the n-side of the laser diode epitaxial structure to the p-metal contact on the p-side of the epitaxial structure; wherein the n-metal contact (2214; 2414; 2614; 2714; 2914) is narrower in the lateral direction than the p-metal contact in the lateral direction; or wherein a first edge of the n-metal contact (2114; 2314; 2514) aligns to a center-plane of an emitter face of the laser diode epitaxial structure.
Patient-specific electrode helmet to be worn on the head, comprising - a shell designed for carrying a number of m electrodes for electrically contacting the scalp of a patient wearing the helmet, - wherein the shell is stable in shape and offers a patient-specific design, characterized in that - the helmet features a number of N electrode holders, each holder is designed for holding a respective electrode in place, and - each holder features a mechanical spring for providing a contact force for pressing the electrodes into the scalp of the patient. - a shell designed for carrying a number of m electrodes for electrically contacting the scalp of a patient wearing the helmet, - wherein the shell is stable in shape and offers a patient-specific design, characterized in that - the helmet features a number of N electrode holders, each holder is designed for holding a respective electrode in place, and - each holder features a mechanical spring for providing a contact force for pressing the electrodes into the scalp of the patient.
Extruded profile, in particular multi-chamber profile, comprising several sections and at least one junction, wherein sections are connected by a junction, wherein the junction comprises varying curvatures and is formed of several partially rounded-off triangles wherein the triangles have in-circles with different radii, characterised in that the triangles are arranged adjoining each other and are designed by way of the traction triangle method.
A two- or three-layered film preparation comprising a drug-containing layer and a support layer on one or both side(s) of the drug-containing layer, wherein both the drug-containing layer and the support layer(s) contain an edible polymer, wherein the edible polymer is hydroxypropyl cellulose and/or hydroxypropylmethyl cellulose, wherein the compounding ratio of the drug is from 0.01 to 40% by weight, based on the whole preparation, and the compounding ratio of the edible polymer is from 40 to 99.99% by weight, based on the whole preparation, wherein the film-shaped preparation has a thickness of from 30 μm to 300 μm, and wherein the breaking strength of the multi-layered film preparation is from 200 to 3,000 g/φ7 mm, the tensile strength of the film is from 200 to 3,000 g/15 mm, and the preparation is soluble in the oral cavity within 60 seconds.