mhurhangee/patent-ind-claim-en huggingface dataset:
Toaster comprising: - a thermally insulating housing , each of the side walls of said housing comprising two transparent plates , a space being provided between the two plates that form a wall, at least one of the walls being removable or rotationally mobile relative to the housing; - a movable compartment intended to receive a piece of bread ; - at least one element heating by means of infrared radiation , said heating element being fitted with at least one means for preventing a portion of the radiation from being emitted towards the bread; said toaster being characterized in that the heating elements are only supplied with power if the two side walls are in the closed position, at least one element heating by means of infrared radiation comprises a reflector housing , said reflector housing allowing a portion of the radiation to be reflected towards the bread to be toasted, one portion of one surface of said reflector being fitted with means for preventing the radiation from being reflected towards the bread, and said means for preventing the radiation from being reflected are made from a non-reflective material, applied on a portion of the surface of the reflector. - a thermally insulating housing , each of the side walls of said housing comprising two transparent plates , a space being provided between the two plates that form a wall, at least one of the walls being removable or rotationally mobile relative to the housing; - a movable compartment intended to receive a piece of bread ; - at least one element heating by means of infrared radiation , said heating element being fitted with at least one means for preventing a portion of the radiation from being emitted towards the bread; said toaster being characterized in that the heating elements are only supplied with power if the two side walls are in the closed position, at least one element heating by means of infrared radiation comprises a reflector housing , said reflector housing allowing a portion of the radiation to be reflected towards the bread to be toasted, one portion of one surface of said reflector being fitted with means for preventing the radiation from being reflected towards the bread, and said means for preventing the radiation from being reflected are made from a non-reflective material, applied on a portion of the surface of the reflector.
Apparatus for filling big bags and in particular FIBC big bags with at least one bulk material , comprising a frame structure , a filling spout for filling the big bag , a weighing unit and at least one compacting device , wherein the frame structure is provided with a holding device with multiple holding hooks to receive holding loops of a big bag to be filled and to retain the big bag during the filling process, wherein a supporting device is provided which defines a supporting surface , with which a bottom end of the big bag can be supported from beneath, wherein the supporting device has a compensating device assigned to it with an active unit that is shiftable relative to the supporting surface for the active unit to act upon the bottom end of the big bag , characterized in that the compacting device further comprises a head plate device that is provided for acting upon the big bag from above, and wherein at least one sensor is disposed at the head plate device for capturing a measure of a pressing force.
A three dimensional printing system which forms a three dimensional article of manufacture through a layer-by-layer process with each layer being formed by the operation of a first light engine selectively curing photocure resin onto a face of the three dimensional article of manufacture comprising: a vessel for containing the photocure resin; a controller ; a image scaler ; a digital mirror device formatter ; a light source driver ; the first light engine including a first light source that illuminates a first spatial light modulator , the first light engine configured to: (a) receive a first incoming slice energy data array defining a two dimensional array of energy values that define optical cure energy to be applied versus position X and Y; (b) process the first incoming slice energy data array to define a first image frame; (c) receive an on signal; (d) activate the first light source in response to the on signal; (e) repeatedly send the first defined image frame to the first spatial light modulator during a defined cure time for a layer of the resin ; wherein the cure time is defined by a time duration between the on signal and the off signal; (f) receive an off signal; (g) deactivate the first light source in response to the off signal; and (h) repeat steps (a) — (g) until the three dimensional article of manufacture is formed. a vessel for containing the photocure resin; a controller ; a image scaler ; a digital mirror device formatter ; a light source driver ; the first light engine including a first light source that illuminates a first spatial light modulator , the first light engine configured to: (a) receive a first incoming slice energy data array defining a two dimensional array of energy values that define optical cure energy to be applied versus position X and Y; (b) process the first incoming slice energy data array to define a first image frame; (c) receive an on signal; (d) activate the first light source in response to the on signal; (e) repeatedly send the first defined image frame to the first spatial light modulator during a defined cure time for a layer of the resin ; wherein the cure time is defined by a time duration between the on signal and the off signal; (f) receive an off signal; (g) deactivate the first light source in response to the off signal; and (h) repeat steps (a) — (g) until the three dimensional article of manufacture is formed. (a) receive a first incoming slice energy data array defining a two dimensional array of energy values that define optical cure energy to be applied versus position X and Y; (b) process the first incoming slice energy data array to define a first image frame; (c) receive an on signal; (d) activate the first light source in response to the on signal; (e) repeatedly send the first defined image frame to the first spatial light modulator during a defined cure time for a layer of the resin ; wherein the cure time is defined by a time duration between the on signal and the off signal; (f) receive an off signal; (g) deactivate the first light source in response to the off signal; and (h) repeat steps (a) — (g) until the three dimensional article of manufacture is formed.
A wireless electronic initiation device for a detonator via a detonator initiator , comprising: - an initiation member for initiating the detonator initiator , - an energy storage for providing initiation energy to said initiation member , and - a controller , wherein - said wireless electronic initiation device is configured to receive - energy in a wireless manner outside from the initiation device and the initiation device is configured to charge said energy storage by the received energy, and - an initiation command in a wireless way outside from the initiation device, and - said controller is configured to manage said charging process of said energy storage and to determine said received initiation command and based on said received initiation command configured to activate said initiation member to ignite the detonator initiator by the energy fed from the energy storage , - the initiation device additionally comprises a connector for connecting said initiation device to the detonator initiator , where the detonator initiator and the detonator are separate components from the initiation device and connectable to said initiation device only via said connector . - an initiation member for initiating the detonator initiator , - an energy storage for providing initiation energy to said initiation member , and - a controller , wherein - said wireless electronic initiation device is configured to receive - energy in a wireless manner outside from the initiation device and the initiation device is configured to charge said energy storage by the received energy, and - an initiation command in a wireless way outside from the initiation device, and - energy in a wireless manner outside from the initiation device and the initiation device is configured to charge said energy storage by the received energy, and - an initiation command in a wireless way outside from the initiation device, and - said controller is configured to manage said charging process of said energy storage and to determine said received initiation command and based on said received initiation command configured to activate said initiation member to ignite the detonator initiator by the energy fed from the energy storage , - the initiation device additionally comprises a connector for connecting said initiation device to the detonator initiator , where the detonator initiator and the detonator are separate components from the initiation device and connectable to said initiation device only via said connector .
A compound of formula (I): having formula: or a pharmaceutically acceptable salt or stereoisomer thereof, wherein R 1 is amido, sulfonamido, optionally substituted imidazolyl, or optionally substituted pyrazolyl; R 7 is 5- to 10-membered aryl or heteroaryl, each optionally substituted with one to three substituents; and Ring Ar is a benzo, pyrazolo, pyrido, thieno, pyrimido, pyrazino, furano, pyridazino, thiazolo, or imidazolo ring, each optionally substituted with one to three substituents; provided that: when Ar is an optionally substituted benzo ring, then is not R 1 is amido, sulfonamido, optionally substituted imidazolyl, or optionally substituted pyrazolyl; R 7 is 5- to 10-membered aryl or heteroaryl, each optionally substituted with one to three substituents; and Ring Ar is a benzo, pyrazolo, pyrido, thieno, pyrimido, pyrazino, furano, pyridazino, thiazolo, or imidazolo ring, each optionally substituted with one to three substituents; provided that: when Ar is an optionally substituted benzo ring, then is not
Method for manufacturing an external horological part comprising an antenna arrangement consisting of a technical embroidery connected to a radio-frequency integrated circuit , the technical embroidery comprising an embroidered structure of insulating threads, such as glass fibres, synthetic threads and ceramic fibres, or natural fibres , such as linen, hemp or cotton or a combination of these components, and at least one conductive thread embroidered so as to produce a fine winding integrated into said embroidered structure of insulating threads or natural fibres , the method comprising the following steps of: - adjusting the technical embroidery in a mould of the external horological part to be produced, and connecting said at least one conductive thread to a radio-frequency integrated circuit inserted in the mould; - injecting a resin into the mould so as to impregnate the technical embroidery and the radio frequency integrated circuit ; - curing the resin contained in the mould; - cross-linking the resin contained in the mould; and - removing the assembly formed by the technical embroidery , the radio frequency integrated circuit and the cross-linked resin . - adjusting the technical embroidery in a mould of the external horological part to be produced, and connecting said at least one conductive thread to a radio-frequency integrated circuit inserted in the mould; - injecting a resin into the mould so as to impregnate the technical embroidery and the radio frequency integrated circuit ; - curing the resin contained in the mould; - cross-linking the resin contained in the mould; and - removing the assembly formed by the technical embroidery , the radio frequency integrated circuit and the cross-linked resin .
A solid electrolyte laminate with electrode layers laminated on both sides of a solid electrolyte layer formed from a solid electrolyte, the solid electrolyte made of yttrium-doped barium zirconate having hydrogen ion conductivity, a doped amount of yttrium being 15 mol% to 20 mol%, and a rate of increase in lattice constant at 100°C to 1000°C with respect to temperature changes being constant.
A system for simultaneously forming and filling a container with a product comprising: a mold cavity defining an internal surface and configured to accept a preform ; a two-stage injection unit configured to receive the product and dispense the product, the two-stage injection unit including a first stage comprising an extruder and a second stage comprising an accumulator , the extruder configured to impart mechanical energy to the product to reduce a viscosity of the product and transfer the reduced-viscosity product to the accumulator , the accumulator configured to receive the reduced-viscosity product from the extruder and dispense a charge of the reduced-viscosity product; and a blow nozzle configured to transfer the charge of the reduced-viscosity product dispensed from the accumulator into the preform to urge the preform to expand toward the internal surface of the mold cavity and form a resultant container, where the reduced-viscosity product remains within the container as an end product. a mold cavity defining an internal surface and configured to accept a preform ; a two-stage injection unit configured to receive the product and dispense the product, the two-stage injection unit including a first stage comprising an extruder and a second stage comprising an accumulator , the extruder configured to impart mechanical energy to the product to reduce a viscosity of the product and transfer the reduced-viscosity product to the accumulator , the accumulator configured to receive the reduced-viscosity product from the extruder and dispense a charge of the reduced-viscosity product; and a blow nozzle configured to transfer the charge of the reduced-viscosity product dispensed from the accumulator into the preform to urge the preform to expand toward the internal surface of the mold cavity and form a resultant container, where the reduced-viscosity product remains within the container as an end product.
Terminal for a cellular communications network , wherein time and frequency resources are used for data transmission, wherein the terminal is configured to selectively use different transmission time intervals for data transmissions from and/or to a base station , to receive resource partitioning information from the base station, and to determine which transmission time interval to use depending on the received resource partitioning information, wherein a first scheduling granularity is used for scheduling first resources associated with a first frequency range, and a second scheduling granularity, which is different from said first scheduling granularity, is used for scheduling second resources associated with a second frequency range, wherein said first and second scheduling granularities are used within respective time intervals (ti1, ti2) which at least partly overlap each other, wherein the terminal is configured to determine which transmission time interval to use by scanning downlink control channels: a first control channel for data on a first transmission time interval and a second control channel for data on a second transmission time interval.
A component for a string instrument, namely a guitar bridge or a tremolo for a guitar, having a first region , a second region , a third region , a fourth region , a fifth region , a sixth region and a seventh region for transmitting acoustic waves between a first body, which is a guitar string, and a second body, which is a guitar body, wherein the first region , the second region , the third region , the fourth region , the fifth region , the sixth region and the seventh region comprise the same material and are connected to one another for transmitting the acoustic waves among one another, wherein the component is monolithic, wherein the first region , the second region , the third region , the fourth region , the fifth region , the sixth region and the seventh region form component densities which vary with respect to one another so that, as a result, at least one acoustic property of the transmitted acoustic waves is adapted or adaptable, wherein the second region , the third region , the fourth region , the fifth region , the sixth region and the seventh region each comprise a different hollow structure which forms a honeycomb structure, and wherein the second region , the third region , the fourth region , the fifth region , the sixth region and the seventh region each have a first connecting element for receiving one guitar string in each case.
A computer-implemented method, comprising: calculating a center-of-mass of a volume of an organ of a patient in a computerized anatomical map of the volume; calculating paths from the center-of-mass to multiple locations on the surface of the volume; finding on the anatomical map a location on a surface of the volume that is farthest from the center-of-mass by finding a longest path among the multiple paths; identifying the location as belonging to a candidate anatomical opening of the organ; finding on the anatomical map a next-farthest location on a surface of the volume, which is farthest from the center-of-mass after excluding the identified candidate opening, and is farthest from the identified candidate opening among the multiple locations; identifying the next-farthest location as belonging to another candidate opening , finding on the anatomical map further next-farthest locations on the surface of the volume, which are farthest from the center-of-mass after excluding the identified candidate openings, and farthest from the identified candidate openings among the multiple locations; and identifying the next-farthest locations as belonging to further candidate openings . calculating a center-of-mass of a volume of an organ of a patient in a computerized anatomical map of the volume; calculating paths from the center-of-mass to multiple locations on the surface of the volume; finding on the anatomical map a location on a surface of the volume that is farthest from the center-of-mass by finding a longest path among the multiple paths; identifying the location as belonging to a candidate anatomical opening of the organ; finding on the anatomical map a next-farthest location on a surface of the volume, which is farthest from the center-of-mass after excluding the identified candidate opening, and is farthest from the identified candidate opening among the multiple locations; identifying the next-farthest location as belonging to another candidate opening , finding on the anatomical map further next-farthest locations on the surface of the volume, which are farthest from the center-of-mass after excluding the identified candidate openings, and farthest from the identified candidate openings among the multiple locations; and identifying the next-farthest locations as belonging to further candidate openings .
A cryocooler mounting arrangement for mounting a coldhead of a cryocooler in a cryostat for allowing the extraction of heat from an interior of the cryostat by the cryocooler , the mounting arrangement comprising a coldhead interface portion for mounting on the coldhead and a sock portion for mounting in the cryostat and arranged for receiving the coldhead , the sock portion comprising a receiving interface portion for receiving the coldhead interface portion so as to provide thermal contact therebetween and hence to provide thermal contact between the coldhead and the interior of the cryostat , wherein the coldhead interface portion comprises a plurality of flexible finger portions and the receiving interface portion comprises a bearing surface against which the finger portions are arranged to rest, the mounting arrangement further comprises a clamping ring for releasably clamping the finger portions against the bearing surface to ensure thermal contact between the coldhead interface and the receiving interface , characterized in that the receiving interface portion further includes an annual recess into which the plurality of finger portions of the coldhead interface extend.
Seal system for a gas turbine, comprising at least a stator or a casing , which has a first ceramic coating , which faces a tip of a blade , wherein this first ceramic coating comprises: a first inner ceramic coating and a first outer ceramic coating ,wherein the first inner ceramic coating does not consist of a segmented microstructure, wherein the first outer ceramic coating is made of FSZ or YBZO, which has a porosity between 250 - 40%, and a blade , which faces the first ceramic coating of the stator or the casing , wherein on the tip of the blade a second ceramic coating is present, the second ceramic coating comprising: a second inner ceramic coating with a partially segmented microstructure and a minimum thickness of 125μm made of PSZ, and a second outer ceramic coating with a segmented microstructure made of FSZ. comprising at least a stator or a casing , which has a first ceramic coating , which faces a tip of a blade , wherein this first ceramic coating comprises: a first inner ceramic coating and a first outer ceramic coating ,wherein the first inner ceramic coating does not consist of a segmented microstructure, wherein the first outer ceramic coating is made of FSZ or YBZO, which has a porosity between 250 - 40%, and a blade , which faces the first ceramic coating of the stator or the casing , wherein on the tip of the blade a second ceramic coating is present, the second ceramic coating comprising: a second inner ceramic coating with a partially segmented microstructure and a minimum thickness of 125μm made of PSZ, and a second outer ceramic coating with a segmented microstructure made of FSZ. a first inner ceramic coating and a first outer ceramic coating ,wherein the first inner ceramic coating does not consist of a segmented microstructure, wherein the first outer ceramic coating is made of FSZ or YBZO, which has a porosity between 250 - 40%, and a blade , which faces the first ceramic coating of the stator or the casing , wherein on the tip of the blade a second ceramic coating is present, the second ceramic coating comprising: a second inner ceramic coating with a partially segmented microstructure and a minimum thickness of 125μm made of PSZ, and a second outer ceramic coating with a segmented microstructure made of FSZ. a second inner ceramic coating with a partially segmented microstructure and a minimum thickness of 125μm made of PSZ, and a second outer ceramic coating with a segmented microstructure made of FSZ.