mhurhangee/ep-ind-claims huggingface dataset:
A method for the manufacture of a dental restoration part by way of a dental furnace, comprising a programmable control device, an image acquisition device, a storage device as well as a display device, wherein the dental restoration part Is manufactured on a sub-structure by applying at least two layers, wherein initial data, especially three-dimensional data, of the sub-structure are stored in the storage device, and image data, especially three-dimensional data, for the outer contour to be manufactured of the dental restoration part and the layers to be manufactured of the dental restoration part, will be defined and especially will be stored, wherein the dental restoration part, during manufacture thereof, is at least partially located in the image acquisition zone of the acquisition device, wherein prior to completion of the dental restoration part and following application of at least one layer, that layer is identified at least regarding its layer thickness and/or color and is displayed via the display device, wherein the layer identified is compared, at least regarding the layer thickness, to the image data and an error signal is generated if the layer applied, regarding its layer thickness and/or color and/or the other chromatic parameters, Including translucence, does not correspond to the layer prescribed according to the image data.
Electromagnet, in particular for valves controlling media where in an armature housing a movably mounted armature acting on a tappet is provided, and a coil carrying windings of a wire that can be flown through by electricity is provided, and at least the armature housing is filled with an armature housing liquid, and the armature housing liquid acts on a membrane to compensate the volume change in the armature housing caused by the armature movement, wherein the membrane is held by only at least one component (5, 50, 26) arranged non-movably in the electromagnet, wherein the membrane achieves a separation between the armature housing liquid and a medium that has to be controlled or an exterior space, characterized in that the magnetic core is penetrated by at least one compensation opening connecting a membrane chamber provided on the side of the valve and filled with armature housing liquid with the armature housing.
An acoustic device, in particular for applications in the automotive industry, comprising: a support; a microphone device, which is connected to the support and has a sensitive area; an acoustic conduit, which is designed to convey the sound pressure waves generated by an external acoustic source towards the sensitive area; wherein the acoustic conduit has a funnel-shaped portion which is provided with a first symmetry axis and is designed to convey and amplify the sound pressure waves coming from the external acoustic source towards a cylindrical portion in communication with the sensitive area; and a membrane, which is interposed between the microphone device and the cylindrical portion of the acoustic conduit so as to protect the sensitive area from external agents; wherein the cylindrical portion of the acoustic conduit is L-shaped and is divided into a first section, which is in communication with the funnel-shaped portion and is coaxial to the first symmetry axis, and a second section, which is provided with a second axis, which is substantially orthogonal to the first symmetry axis. a support; a microphone device, which is connected to the support and has a sensitive area; an acoustic conduit, which is designed to convey the sound pressure waves generated by an external acoustic source towards the sensitive area; wherein the acoustic conduit has a funnel-shaped portion which is provided with a first symmetry axis and is designed to convey and amplify the sound pressure waves coming from the external acoustic source towards a cylindrical portion in communication with the sensitive area; and a membrane, which is interposed between the microphone device and the cylindrical portion of the acoustic conduit so as to protect the sensitive area from external agents; wherein the cylindrical portion of the acoustic conduit is L-shaped and is divided into a first section, which is in communication with the funnel-shaped portion and is coaxial to the first symmetry axis, and a second section, which is provided with a second axis, which is substantially orthogonal to the first symmetry axis.
A liquid container configured to be mounted on a liquid container holder of a liquid consuming apparatus, comprising: a liquid containing bag that is formed in the shape of a bag, and is capable of internally containing liquid; a flow path member that includes a flow path for guiding liquid contained in the liquid containing bag to the outside, and a supply port that is connected to the flow path; a container box in which the liquid containing bag is housed, and that is made from a plant-derived material; and a cushioning part that mitigates an external impact applied via the container box characterized in that the cushioning part is provided on a layer that forms an outer surface of the liquid containing bag. a liquid containing bag that is formed in the shape of a bag, and is capable of internally containing liquid; a flow path member that includes a flow path for guiding liquid contained in the liquid containing bag to the outside, and a supply port that is connected to the flow path; a container box in which the liquid containing bag is housed, and that is made from a plant-derived material; and a cushioning part that mitigates an external impact applied via the container box characterized in that the cushioning part is provided on a layer that forms an outer surface of the liquid containing bag.
A waterproof power supply, including: housing, the housing is provided with built-in power supply component; end cover, the end cover is connected to the opening on the housing; wherein the end cover and the opening of the housing form a sealed cavity, and the sealing of end cover and housing can be realized by injecting colloid into the cavity, and wherein the end cover includes two oppositely disposed and connected baffles (31, 32), and the cavity is formed by the enclosure of two baffles (31, 32) and the side wall of the housing, characterized in that the two baffles (31, 32) are conductive plates and are electrically connected; the power supply component is a circuit motherboard, the baffle on the inner side of the end cover is connected with one end of the circuit motherboard; the end cover is further provided with power cord, and the power cord is connected at least to the baffle on the outer side of the end cover, and that the two baffles (31, 32) are connected through a conductive connector. housing, the housing is provided with built-in power supply component; end cover, the end cover is connected to the opening on the housing; wherein the end cover and the opening of the housing form a sealed cavity, and the sealing of end cover and housing can be realized by injecting colloid into the cavity, and wherein the end cover includes two oppositely disposed and connected baffles (31, 32), and the cavity is formed by the enclosure of two baffles (31, 32) and the side wall of the housing, characterized in that the two baffles (31, 32) are conductive plates and are electrically connected; the power supply component is a circuit motherboard, the baffle on the inner side of the end cover is connected with one end of the circuit motherboard; the end cover is further provided with power cord, and the power cord is connected at least to the baffle on the outer side of the end cover, and that the two baffles (31, 32) are connected through a conductive connector.
A composition for use in preventing influenza viral infection, wherein the influenza virus is an influenza A/PR/8(H1N1) or A/California/04/09, comprising a sumac extract as an active ingredient.
An X-Ray guided focused ultrasound treatment apparatus, the apparatus comprising: an articulated arm having a base and a distal end, the articulated arm is attached at the base to a procedure platform; a cradle affixed to the distal end of the arm; an aiming apparatus removably affixable within the cradle; and a FUS transducer removably affixable within the cradle and configured to transmit a FUS therapeutic energy beam to a treatment location, wherein the FUS transducer is connected to a controller to control the FUS therapeutic energy beam being transmitted by the FUS transducer; characterized in that: the cradle has a conic shape, wherein projections of the conic shape boundaries are consistent with the FUS therapeutic beam generated by the FUS transducer, and wherein a lateral projection apex of the conic shape corresponds to a focal point of the FUS transducer. an articulated arm having a base and a distal end, the articulated arm is attached at the base to a procedure platform; a cradle affixed to the distal end of the arm; an aiming apparatus removably affixable within the cradle; and a FUS transducer removably affixable within the cradle and configured to transmit a FUS therapeutic energy beam to a treatment location, wherein the FUS transducer is connected to a controller to control the FUS therapeutic energy beam being transmitted by the FUS transducer; characterized in that: the cradle has a conic shape, wherein projections of the conic shape boundaries are consistent with the FUS therapeutic beam generated by the FUS transducer, and wherein a lateral projection apex of the conic shape corresponds to a focal point of the FUS transducer.
An LC format optical connector for terminating an optical fiber, comprising: a housing including an outer shell with an LC format and a front face configured to mate with an LC receptacle, the housing including a resilient latch disposed on a surface of the outer shell and configured to engage the LC receptacle; a backbone (116, 116', 216) configured to engage an outer surface of the outer shell on a first portion thereof and that includes a mounting structure (118, 118', 218) disposed on a second portion thereof; a boot configured to engage the mounting structure (118, 118', 218) of the backbone (116, 116', 216); a collar body disposed in the housing and retained between the outer shell and the backbone (116, 116', 216), wherein the collar body includes a fiber stub disposed in a first portion of the collar body, the fiber stub being mounted in a ferrule and having a first end proximate to an end face of the ferrule and a second end; and a mechanical splice disposed in a second portion of the collar body, the mechanical splice configured to splice the second end of the fiber stub to the optical fiber, wherein the backbone (116, 116', 216) also includes a fiber jacket clamping portion to clamp a jacket portion that surrounds a portion of the optical fiber upon actuation, and wherein the boot actuates the fiber jacket clamping portion of the backbone (116, 116', 216) upon attachment to the backbone; characterized in that the boot includes a longitudinal slot formed along a portion of its length that permits the spliced optical fiber to bow outward unrestrained by the boot when engaged with the LC receptacle. a housing including an outer shell with an LC format and a front face configured to mate with an LC receptacle, the housing including a resilient latch disposed on a surface of the outer shell and configured to engage the LC receptacle; a backbone (116, 116', 216) configured to engage an outer surface of the outer shell on a first portion thereof and that includes a mounting structure (118, 118', 218) disposed on a second portion thereof; a boot configured to engage the mounting structure (118, 118', 218) of the backbone (116, 116', 216); a collar body disposed in the housing and retained between the outer shell and the backbone (116, 116', 216), wherein the collar body includes a fiber stub disposed in a first portion of the collar body, the fiber stub being mounted in a ferrule and having a first end proximate to an end face of the ferrule and a second end; and a mechanical splice disposed in a second portion of the collar body, the mechanical splice configured to splice the second end of the fiber stub to the optical fiber, wherein the backbone (116, 116', 216) also includes a fiber jacket clamping portion to clamp a jacket portion that surrounds a portion of the optical fiber upon actuation, and wherein the boot actuates the fiber jacket clamping portion of the backbone (116, 116', 216) upon attachment to the backbone; characterized in that the boot includes a longitudinal slot formed along a portion of its length that permits the spliced optical fiber to bow outward unrestrained by the boot when engaged with the LC receptacle.
An assembly system for connecting adjacent girder modules in order to form a modular bridge girder, the assembly system including at least one connecting plate comprising four lateral protuberances (71, 72, 73, 74) and a central body, said connecting plate being adapted for transmitting a bending moment and shearing stress between adjacent girder modules, characterized in that the connecting plate is coupled with two connecting rods or with another connecting plate, the assembly system comprising four axles (81, 82, 83, 84) each positioned in a first bore (710, 720, 730, 740) arranged in one of the lateral protuberances (71, 72, 73, 74) of the connecting plate on the one hand, and in a second bore arranged in one of the two connecting rods or in the other connecting plate on the other hand.
A siloxane resin composition comprising a siloxane compound, 1-t-butoxy-2-propanol and metal compound particles, wherein the siloxane resin composition further comprises a quinonediazide-based photosensitive agent and is positive photosensitive or a photo acid generating agent and is negative photosensitive.
A compound composition comprised of a surface-treated carbon black and a functionalized elastomer with functionalization along the elastomer chain, wherein the elastomer is a solution SBR and wherein the elastomer functionalization is composed of polar, carboxylic acid groups, and wherein the surface-treated carbon black is a carbon black that has been treated with peroxide or ozone, resulting in oxidation of the surface with polar, oxygen-containing functionalities; or wherein the surface-treated carbon black has been treated with an oxidizing agent followed by treatment with an amine-based compound, resulting in amine functionalization; or wherein the surface-treated carbon black has been treated with an oxidizing agent followed by treatment with an hydroxy-based compound; or wherein the surface-treated carbon black has been treated with a chlorinating agent followed by treatment with ammonia, resulting in amine functionalization.
A turbofan gas turbine engine comprising a fan and an intake duct upstream of the fan, the fan comprising a fan rotor having a plurality of fan blades, the intake duct having a liner, the liner comprising an acoustic liner and a buzz-saw tone noise liner, the buzz-saw tone noise liner has a greater depth than the acoustic liner, the intake duct has a lip, the lip of the intake duct is a position of minimum cross-sectional area, or at a position near to a minimum cross-sectional area, of the intake duct, characterised in that the acoustic liner is positioned upstream of the fan and the buzz-saw tone noise liner is positioned upstream of the acoustic liner, the buzz-saw tone noise liner is positioned substantially at, or near, an upstream end of the intake duct and the buzz-saw tone noise liner is positioned at, or near, the lip.
A method for processing processor executable instructions, comprising: selecting, by a processor, a group of instructions from an instruction stream; extracting, by the processor, a respective chaining bit from each instruction in the selected group of instructions; reassembling, by the processor, the extracted chaining bits to form a combination of chaining bits, wherein the combination of chaining bits is to represent a plurality of instruction issue types for the selected group of instructions, and wherein the plurality of instruction issue types comprise an intra-group parallel execution and an inter-group parallel execution; decoding, by the processor, the combination of chaining bits to determine a first instruction issue type of the plurality of instruction issue types; identifying, by the processor based on the first instruction issue type, zero or more instruction stream dependencies among the selected group of instructions without fully decoding any of the selected group of instructions; and outputting, by the processor, control signals to control execution of the selected group of instructions at one or more pipelines stages of the processor based on the identified zero or more instruction stream dependencies. selecting, by a processor, a group of instructions from an instruction stream; extracting, by the processor, a respective chaining bit from each instruction in the selected group of instructions; reassembling, by the processor, the extracted chaining bits to form a combination of chaining bits, wherein the combination of chaining bits is to represent a plurality of instruction issue types for the selected group of instructions, and wherein the plurality of instruction issue types comprise an intra-group parallel execution and an inter-group parallel execution; decoding, by the processor, the combination of chaining bits to determine a first instruction issue type of the plurality of instruction issue types; identifying, by the processor based on the first instruction issue type, zero or more instruction stream dependencies among the selected group of instructions without fully decoding any of the selected group of instructions; and outputting, by the processor, control signals to control execution of the selected group of instructions at one or more pipelines stages of the processor based on the identified zero or more instruction stream dependencies.
A computer-implemented method for facilitating dynamic load-based merging, the method comprising: storing reference data in respective storage devices in a plurality of server groups (142, 144), wherein a respective server group in the plurality of server groups includes one or more computing devices (104, 106, 134, 136); identifying incremental data in a memory of a first computing device distinct from the plurality of server groups, wherein the incremental data comprises updates to the reference data in a storage device in a second computing device, wherein the second computing device belongs to a first server group of the plurality of server groups; in response to the size of the incremental data being greater than a threshold, selecting the first server group from the plurality of server groups for merging the incremental data; migrating data access request traffic for the reference data from the first server group to a second server group in the plurality of server groups to reduce data access request traffic for the first server group; determining a traffic ratio of data access requests to the first server group with respect to data access requests to the plurality of server groups; in response to the traffic ratio reaching a threshold value, merging the incremental data from the memory of the first computing device with the reference data stored in the storage device in the second computing device, wherein the merging includes batch sequential disk writes to the storage device of the second computing device. storing reference data in respective storage devices in a plurality of server groups (142, 144), wherein a respective server group in the plurality of server groups includes one or more computing devices (104, 106, 134, 136); identifying incremental data in a memory of a first computing device distinct from the plurality of server groups, wherein the incremental data comprises updates to the reference data in a storage device in a second computing device, wherein the second computing device belongs to a first server group of the plurality of server groups; in response to the size of the incremental data being greater than a threshold, selecting the first server group from the plurality of server groups for merging the incremental data; migrating data access request traffic for the reference data from the first server group to a second server group in the plurality of server groups to reduce data access request traffic for the first server group; determining a traffic ratio of data access requests to the first server group with respect to data access requests to the plurality of server groups; in response to the traffic ratio reaching a threshold value, merging the incremental data from the memory of the first computing device with the reference data stored in the storage device in the second computing device, wherein the merging includes batch sequential disk writes to the storage device of the second computing device.
A lighting module, comprising: at least one array of solid-state lighting elements; a variable resistor having an input of an intensity control voltage for the array of solid-state lighting elements, the variable resistor having an output electrically connected to an input of the array of solid-state lighting elements; and a voltage regulator electrically connected to the output of the variable resistor, the voltage regulator having an output connected to an input of the array of solid-state lighting elements, wherein the voltage regulator comprises: an error amplifier in electrical connection with the output of the variable resistor; a pulse width modulation generator electrically connected to the error amplifier; a power circuit electrically connected to the pulse width modulation generator, the power circuit having the output connect to the input of the array of solid-state lighting elements, characterised by a switch arranged to enable said electrical connection when the array of solid-state light emitting elements is enabled, wherein the switch is arranged to have a delay, the delay arranged to allow current in the array of light-emitting elements to begin rising prior to receiving the output of the variable resistor. at least one array of solid-state lighting elements; a variable resistor having an input of an intensity control voltage for the array of solid-state lighting elements, the variable resistor having an output electrically connected to an input of the array of solid-state lighting elements; and a voltage regulator electrically connected to the output of the variable resistor, the voltage regulator having an output connected to an input of the array of solid-state lighting elements, wherein the voltage regulator comprises: an error amplifier in electrical connection with the output of the variable resistor; a pulse width modulation generator electrically connected to the error amplifier; a power circuit electrically connected to the pulse width modulation generator, the power circuit having the output connect to the input of the array of solid-state lighting elements, characterised by a switch arranged to enable said electrical connection when the array of solid-state light emitting elements is enabled, wherein the switch is arranged to have a delay, the delay arranged to allow current in the array of light-emitting elements to begin rising prior to receiving the output of the variable resistor.
A herbicide composition comprising, (a) one or more betaine surfactant compounds, (b) one or more surfactant compounds selected from alkyl ether sulfates, and (c) an effective amount of a herbicide. (a) one or more betaine surfactant compounds, (b) one or more surfactant compounds selected from alkyl ether sulfates, and (c) an effective amount of a herbicide.