mhurhangee/ep-ind-claims huggingface dataset:
Sprayer including a chassis carrying a main container, a spray boom and an incorporation device, characterized in that the volume occupied by the incorporation device can be varied between its active state and its inactive state.
A system (100a, 100b) for drying compressed air, the system comprising: a cooler configured to cool compressed air received from a plurality of compressors by exchange with a refrigerant, wherein the cooler comprises a plurality of subcoolers (101a, 101b, 101c) in parallel, each subcooler corresponding to a respective compressor of the plurality of compressors; a refrigeration cycle in fluid communication with the cooler, the refrigeration cycle comprising the refrigerant circulating in the refrigeration cycle, and a refrigerant chiller configured to re-cool the refrigerant received from the cooler; one or more receivers downstream of the cooler, the one or more receivers configured to collect condensate from the cooled compressed air; and a plurality of adsorption dryers (105a, 105b) in parallel downstream of the one or more receivers, the plurality of adsorption dryers configured to remove moisture from the cooled compressed air to form dried compressed air with a dew point of - 40°C (-40°F) or below. a cooler configured to cool compressed air received from a plurality of compressors by exchange with a refrigerant, wherein the cooler comprises a plurality of subcoolers (101a, 101b, 101c) in parallel, each subcooler corresponding to a respective compressor of the plurality of compressors; a refrigeration cycle in fluid communication with the cooler, the refrigeration cycle comprising the refrigerant circulating in the refrigeration cycle, and a refrigerant chiller configured to re-cool the refrigerant received from the cooler; the refrigerant circulating in the refrigeration cycle, and a refrigerant chiller configured to re-cool the refrigerant received from the cooler; one or more receivers downstream of the cooler, the one or more receivers configured to collect condensate from the cooled compressed air; and a plurality of adsorption dryers (105a, 105b) in parallel downstream of the one or more receivers, the plurality of adsorption dryers configured to remove moisture from the cooled compressed air to form dried compressed air with a dew point of - 40°C (-40°F) or below.
Sanitary fitting, especially a concealed sanitary fitting, having a rosette which covers an assembly of the sanitary fitting and which has a decorative part on the visible side and a fixing part covered by the decorative part, which fixing part is arranged to be clamped together with the assembly with interposition of an installation wall, wherein the decorative part and the fixing part are in bayonet connection, in which a locking element is displaceable in an actuation direction along the circumference of the rosette between a locking position, in which the decorative part is mounted on the fixing part, and an unlocking position, in which the decorative part is releasable from the fixing part, wherein the locking element is a bayonet ring element separate from the decorative part and from the fixing part, which bayonet ring element is arranged so as to be concealed from view between the decorative part and the fixing part, and the bayonet ring element is displaceable with respect to the decorative and fixing parts (15, 17), which are fixed against relative rotation, between its locking and unlocking positions (V, E), characterised in that the decorative part has anti-rotation means, by means of which the decorative part is mountable on the fixing part so as to be fixed against relative rotation.
Power electronics device which comprises liquid-cooled power units (REC 5, REC 6, REC 7 AFE 5, AFE 6, AFE 7, INU 4, INU 5, INU 6, INU 7) and a support structure carrying the power units, the power units each including at least one power semiconductor component, wherein the power electronics device is adapted to connect the power units to at least one power circuit wherein the power units are mechanically separate, wherein the support structure comprises at least one substrate, wherein the at least one substrate has cooling liquid ducts (4, 5) arranged therein, and the at least one substrate has more than one of the power units disposed thereon, wherein the power electronics device further comprises an electrical interface (11, 12), wherein each of the power units comprises input electrical connections (9, 10) and output electrical connections (U, V, W), and the electrical interface (11, 12) connects each of the power units disposed on the at least one substrate via the input electrical connections (9, 10) to the at least one power circuit, the power electronics device being characterized in that the power electronics device further comprises supporting insulators fixing the electrical interface (11, 12) to the at least one substrate, and in that each of the power units disposed on the at least one substrate comprises cooling liquid interfaces (7, 8) connecting, in a waterproof manner, the respective power unit directly to the cooling liquid ducts (4, 5) and is arranged to let a cooling liquid circulating via the cooling liquid ducts circulate via the cooling liquid interfaces inside the respective power unit thereby cooling the respective power unit.
Navigation light, which can be arranged or is arranged on a watercraft, wherein the navigation light has a first light module with several LED illuminants, wherein one optical sensor each is assigned to each individual LED illuminant for its functional monitoring, wherein the navigation light, to form a redundancy, additionally has a second light module which is formed essentially identically to the first light module, characterized in that the navigation light has an electrical circuit which is configured to interrupt a power supply line of the first light module if a malfunction of one of the LED illuminants is detected by at least one of the optical sensors of the first light module, so that this interruption is detected in a control center, such as with light bulb-based navigation lights.
A system, comprising: a wand assembly comprising a sanitizing head having an ultraviolet lamp configured to emit UV light to sanitize a surface of a component, the wand assembly further comprising a first monitored member; a second monitored member separate and distinct from the wand assembly; and a verification control unit in communication with both the first monitored member and the second monitored member, wherein the verification control unit is configured to detect a speed of the wand assembly based on a change in position of the first monitored member in relation to a position of the second monitored member over time. a wand assembly comprising a sanitizing head having an ultraviolet lamp configured to emit UV light to sanitize a surface of a component, the wand assembly further comprising a first monitored member; a second monitored member separate and distinct from the wand assembly; and a verification control unit in communication with both the first monitored member and the second monitored member, wherein the verification control unit is configured to detect a speed of the wand assembly based on a change in position of the first monitored member in relation to a position of the second monitored member over time.
Process for the oligomerization of C3- to C5-olefins, wherein the oligomerization is carried out with a feed mixture comprising the C3- to C5-olefins, using an oligomerization catalyst in at least one reaction stage to obtain an oligomerizate, wherein the oligomers formed are separated at least partially in at least one downstream distillation column from the residual oligomerizate, which is at least partially recycled to the at least one reactor, characterized in that the reaction stage or at least one of the reaction stages comprises at least one adiabatically operated reactor, wherein in the adiabatically operated reactor a temperature increase, i.e. the difference between the temperature of the reactor discharge and the temperature of the reactor feed, is at least temporarily 40 K or more, and in that the temperature increase is monitored and, when the temperature increase exceeds a threshold value of 40 K, the oligomer content in the feed to the at least one reactor of the at least one reaction stage, which consists of recycled residual oligomerizate and the fresh feed of the feed mixture, is adjusted to 1% by weight to 10% by weight, based on the total composition of the feed. the reaction stage or at least one of the reaction stages comprises at least one adiabatically operated reactor, wherein in the adiabatically operated reactor a temperature increase, i.e. the difference between the temperature of the reactor discharge and the temperature of the reactor feed, is at least temporarily 40 K or more, and in that the temperature increase is monitored and, when the temperature increase exceeds a threshold value of 40 K, the oligomer content in the feed to the at least one reactor of the at least one reaction stage, which consists of recycled residual oligomerizate and the fresh feed of the feed mixture, is adjusted to 1% by weight to 10% by weight, based on the total composition of the feed.
A system for producing plastic products from raw material that has been recycled from unsorted, unidentified and unclean mixed plastic waste comprises a system for mixing raw materials, a first conveyor, a hopper, a second conveyor, a fine mixer with a weighing system, a control panel, a single-screw extruder, a system of calibration matrices on the calibration table, a water-cooling bath, a pultrusion machine, and an automatic cutter, wherein - the single-screw extruder comprises a motor; a gearbox; a frame; cooling ventilators; a screw with diameter 90-120 mm having a feeding zone, a compression zone and a mixing zone; a barrel that includes heating zones,,,,; an extrusion head; a die; and an head extension that is also used as the first cooling zone; - the system of calibration matrices comprises a first calibration matrix (10.1) that is connected to the extrusion head extension; second calibration matrix (10.2), third calibration matrix (10.3), fourth calibration matrix (10.4), wherein each following matrix is 0.5 mm bigger than the previous one and each of them comprising a bottom (10.5), a lid (10.6) and sides (10.7) and (10.8) that are rigidly fixed to one another, thus forming an inner chamber (10.9) of the matrices; and cooling channels (10.10); - the pultrusion machine comprises a converter and an electric motor with a reducer. - the single-screw extruder comprises a motor; a gearbox; a frame; cooling ventilators; a screw with diameter 90-120 mm having a feeding zone, a compression zone and a mixing zone; a barrel that includes heating zones,,,,; an extrusion head; a die; and an head extension that is also used as the first cooling zone; - the system of calibration matrices comprises a first calibration matrix (10.1) that is connected to the extrusion head extension; second calibration matrix (10.2), third calibration matrix (10.3), fourth calibration matrix (10.4), wherein each following matrix is 0.5 mm bigger than the previous one and each of them comprising a bottom (10.5), a lid (10.6) and sides (10.7) and (10.8) that are rigidly fixed to one another, thus forming an inner chamber (10.9) of the matrices; and cooling channels (10.10); - the pultrusion machine comprises a converter and an electric motor with a reducer.
A system (800; 902) comprising: at least one processor; and memory (804; 962) coupled to the at least one processor, the memory comprising computer executable instructions that, when executed by the at least one processor, cause the processor to carry out a method for delegating authorization to access an isolated collection of data, the method comprising: receiving a request to access the isolated collection of data from a requestor, wherein the isolated collection of data comprises at least a resource identifier, and wherein the request comprises request data; locating an underlying resource corresponding to the resource identifier; based upon the underlying resource, determining whether the requestor is authorized to access the underlying resource, wherein determining access to the underlying resource comprises using account information provided in the request data to determine whether a resource provider is associated with a user account that is associated with the requestor; and when the requestor is authorized to access the underlying resource, providing access to the isolated collection of data. at least one processor; and memory (804; 962) coupled to the at least one processor, the memory comprising computer executable instructions that, when executed by the at least one processor, cause the processor to carry out a method for delegating authorization to access an isolated collection of data, the method comprising: receiving a request to access the isolated collection of data from a requestor, wherein the isolated collection of data comprises at least a resource identifier, and wherein the request comprises request data; locating an underlying resource corresponding to the resource identifier; based upon the underlying resource, determining whether the requestor is authorized to access the underlying resource, wherein determining access to the underlying resource comprises using account information provided in the request data to determine whether a resource provider is associated with a user account that is associated with the requestor; and when the requestor is authorized to access the underlying resource, providing access to the isolated collection of data. receiving a request to access the isolated collection of data from a requestor, wherein the isolated collection of data comprises at least a resource identifier, and wherein the request comprises request data; locating an underlying resource corresponding to the resource identifier; based upon the underlying resource, determining whether the requestor is authorized to access the underlying resource, wherein determining access to the underlying resource comprises using account information provided in the request data to determine whether a resource provider is associated with a user account that is associated with the requestor; and when the requestor is authorized to access the underlying resource, providing access to the isolated collection of data.
A method of dynamically determining the access rights to a record, comprising: - receiving an access request from a client device (10; 26) with respect to the record, - determining a plurality of contexts relating to the access request, - calculating a context score for each determined context, - calculating an overall score from the context scores, the overall score comprising an average of the calculated context scores, - accessing a rights policy for the record, the rights policy defining a plurality of different rights with respect to the record, each with a respective minimum score, - determining the access rights by: comparing the average context score to the minimum score for each right in the rights policy; and if the average context score is greater than or equal to the minimum score for a given right, granting that right to the client device; and if the average context score is less than the minimum score for the given right, denying that right to the client device; and - providing access to the record at the client device (10; 26), wherein the extent of the access provided depends on the determined access rights. - receiving an access request from a client device (10; 26) with respect to the record, - determining a plurality of contexts relating to the access request, - calculating a context score for each determined context, - calculating an overall score from the context scores, the overall score comprising an average of the calculated context scores, - accessing a rights policy for the record, the rights policy defining a plurality of different rights with respect to the record, each with a respective minimum score, - determining the access rights by: comparing the average context score to the minimum score for each right in the rights policy; and if the average context score is greater than or equal to the minimum score for a given right, granting that right to the client device; and if the average context score is less than the minimum score for the given right, denying that right to the client device; and comparing the average context score to the minimum score for each right in the rights policy; and if the average context score is greater than or equal to the minimum score for a given right, granting that right to the client device; and if the average context score is less than the minimum score for the given right, denying that right to the client device; and - providing access to the record at the client device (10; 26), wherein the extent of the access provided depends on the determined access rights.
A nuclear medicine image reconstruction device comprising: an electronic processor; and a non-transitory storage medium storing instructions readable and executable by the electronic processor to perform an image reconstruction method including: generating a reconstructed image by performing iterative image reconstruction on nuclear medicine imaging data wherein the iterative image reconstruction produces a sequence of update images (34, 36); characterized by during the iterative image reconstruction, applying a standardized uptake value transform to convert an update image (34, 36) to an update SUV image (42, 46), wherein the SUV transform operates to scale values of voxels of the update image (34, 36) to SUV values using scaling factors including at least a body size metric and a dose metric; and by during the iterative image reconstruction, adjusting at least one parameter of the iterative image reconstruction using the update SUV image,wherein the adjusting includes adjusting a parameter of a prior or filter (38, 48) used in the iterative image reconstruction. an electronic processor; and a non-transitory storage medium storing instructions readable and executable by the electronic processor to perform an image reconstruction method including: generating a reconstructed image by performing iterative image reconstruction on nuclear medicine imaging data wherein the iterative image reconstruction produces a sequence of update images (34, 36); characterized by during the iterative image reconstruction, applying a standardized uptake value transform to convert an update image (34, 36) to an update SUV image (42, 46), wherein the SUV transform operates to scale values of voxels of the update image (34, 36) to SUV values using scaling factors including at least a body size metric and a dose metric; and by during the iterative image reconstruction, adjusting at least one parameter of the iterative image reconstruction using the update SUV image,wherein the adjusting includes adjusting a parameter of a prior or filter (38, 48) used in the iterative image reconstruction. generating a reconstructed image by performing iterative image reconstruction on nuclear medicine imaging data wherein the iterative image reconstruction produces a sequence of update images (34, 36); characterized by during the iterative image reconstruction, applying a standardized uptake value transform to convert an update image (34, 36) to an update SUV image (42, 46), wherein the SUV transform operates to scale values of voxels of the update image (34, 36) to SUV values using scaling factors including at least a body size metric and a dose metric; and by during the iterative image reconstruction, adjusting at least one parameter of the iterative image reconstruction using the update SUV image,wherein the adjusting includes adjusting a parameter of a prior or filter (38, 48) used in the iterative image reconstruction.
An automotive LED lighting module comprising - an LED lamp comprising a number of light-emitting diodes; - a first driver module configured to drive the LED lamp at a first DC voltage level; and - a second driver module configured to drive the LED lamp at a second DC voltage level, which second DC voltage level is lower than the first DC voltage level; characterized by, - the first driver module configured to drive the LED lamp at a first DC voltage level (U_hi) of a DC voltage supply; - the second driver module configured to drive the LED lamp at a second DC voltage level (U_lo) of a DC voltage supply, which second DC voltage level (U_lo) is lower than the first DC voltage level (U_hi); and - a switch arrangement (13, 130) comprising an interface (151, 152) for connection to a two-level DC voltage supply, and wherein the switch arrangement (13, 130) is configured to connect the first driver module to the LED lamp when the input voltage at the interface (151, 152) is at the first level (U_hi), and to connect the second driver module to the LED lamp when the input voltage level at the interface (151, 152) is at the second level (U_lo). - an LED lamp comprising a number of light-emitting diodes; - a first driver module configured to drive the LED lamp at a first DC voltage level; and - a second driver module configured to drive the LED lamp at a second DC voltage level, which second DC voltage level is lower than the first DC voltage level; - the first driver module configured to drive the LED lamp at a first DC voltage level (U_hi) of a DC voltage supply; - the second driver module configured to drive the LED lamp at a second DC voltage level (U_lo) of a DC voltage supply, which second DC voltage level (U_lo) is lower than the first DC voltage level (U_hi); and - a switch arrangement (13, 130) comprising an interface (151, 152) for connection to a two-level DC voltage supply, and wherein the switch arrangement (13, 130) is configured to connect the first driver module to the LED lamp when the input voltage at the interface (151, 152) is at the first level (U_hi), and to connect the second driver module to the LED lamp when the input voltage level at the interface (151, 152) is at the second level (U_lo).