mhurhangee/ep-ind-claims huggingface dataset:
A woven fiber optics dental post, comprising: a post body made of resin material, the post body including a post face, an irradiation receiving portion, and a bottom; and a woven fiber component provided within the post body, the woven fiber component being formed by intertwining a plurality of fiber optics members, each fiber optics member having a light receiving end and a light emitting end, a light receiving end portion is composed of the light receiving ends of a plurality of the fiber optics members, a light emitting end portion is composed of the light emitting ends of a plurality of the fiber optics members, wherein the light receiving end portion is appeared on the irradiation receiving portion of the post body for having the woven fiber component receiving a light irradiated at the irradiation receiving portion, and the light emitting end portion is appeared on the post face and/or the bottom of the post body for having the light received by the woven fiber component transmitting to the light emitting end portion to be emitted out of the post face and/ or the bottom; wherein each of the fiber optics members includes a core layer and a shell layer enclosing a circumferential surface of the core layer; and wherein the coefficient of thermal expansion of the shell layer is lower than the thermal coefficient of thermal expansion of the core layer. a post body made of resin material, the post body including a post face, an irradiation receiving portion, and a bottom; and a woven fiber component provided within the post body, the woven fiber component being formed by intertwining a plurality of fiber optics members, each fiber optics member having a light receiving end and a light emitting end, a light receiving end portion is composed of the light receiving ends of a plurality of the fiber optics members, a light emitting end portion is composed of the light emitting ends of a plurality of the fiber optics members, wherein the light receiving end portion is appeared on the irradiation receiving portion of the post body for having the woven fiber component receiving a light irradiated at the irradiation receiving portion, and the light emitting end portion is appeared on the post face and/or the bottom of the post body for having the light received by the woven fiber component transmitting to the light emitting end portion to be emitted out of the post face and/ or the bottom; wherein each of the fiber optics members includes a core layer and a shell layer enclosing a circumferential surface of the core layer; and wherein the coefficient of thermal expansion of the shell layer is lower than the thermal coefficient of thermal expansion of the core layer.
A method for producing nano-particles of MoO 3 from a MoO 3 precursor material, comprising: sublimating the precursor material to produce a MoO 3 vapor in a vapor region; characterised by further directing said MoO 3 vapor from said vapor region directly into an isolation chamber; isolating said MoO 3 vapor from said vapor region in said isolation chamber; contacting said MoO 3 vapor contained in said isolation chamber with a quench fluid stream, said quench fluid stream cooling said MoO 3 vapor to produce the nano-particles of MoO 3 in a carrier stream, and removing said nano-particles of MoO 3 in said carrier stream from said isolation chamber. sublimating the precursor material to produce a MoO 3 vapor in a vapor region; characterised by further directing said MoO 3 vapor from said vapor region directly into an isolation chamber; isolating said MoO 3 vapor from said vapor region in said isolation chamber; contacting said MoO 3 vapor contained in said isolation chamber with a quench fluid stream, said quench fluid stream cooling said MoO 3 vapor to produce the nano-particles of MoO 3 in a carrier stream, and removing said nano-particles of MoO 3 in said carrier stream from said isolation chamber.
A carbon composite composition for manufacturing a resistance heating element, comprising: a binder; a lubricant; a specific resistance controlling agent; and a base material which comprises silicon carbide, wherein the base material determines a specific resistance of the resistance heating element at a high temperature; characterized in that the binder comprises a novolac resin, the specific resistance controlling agent comprises aluminum oxide and/or silicon oxide, and the lubricant comprises graphite. a binder; a lubricant; a specific resistance controlling agent; and a base material which comprises silicon carbide, wherein the base material determines a specific resistance of the resistance heating element at a high temperature; characterized in that the binder comprises a novolac resin, the specific resistance controlling agent comprises aluminum oxide and/or silicon oxide, and the lubricant comprises graphite.
An apparatus for feeding back a channel quality indicator, comprising: a feedback module, configured to feed back a channel quality indicator, CQI, to a network device; a determining module, configured to determine a feedback granularity of a CQI according to a system bandwidth, a CQI feedback mode, and antenna port quantity information specified by the network device; wherein the feedback module is configured to feed back the CQI to the network device according to the feedback granularity of the CQI, wherein in a same system bandwidth and a same CQI feedback mode, if the network device comprises at least two types of antenna port quantities and each type of antenna port quantity corresponds to a different feedback granularity, a larger antenna port quantity indicates a larger feedback granularity. a feedback module, configured to feed back a channel quality indicator, CQI, to a network device; a determining module, configured to determine a feedback granularity of a CQI according to a system bandwidth, a CQI feedback mode, and antenna port quantity information specified by the network device; wherein the feedback module is configured to feed back the CQI to the network device according to the feedback granularity of the CQI, wherein in a same system bandwidth and a same CQI feedback mode, if the network device comprises at least two types of antenna port quantities and each type of antenna port quantity corresponds to a different feedback granularity, a larger antenna port quantity indicates a larger feedback granularity.
A method for selecting an output device for notifications, the method comprising: receiving an electronic notification via a communications network, wherein the electronic notification comprises an indication of an originator of the electronic notification; determining an output range for each electronic device in a plurality of electronic devices (216, 218) of a same user, wherein determining comprises determining an audio output decibel level of each electronic device or determining a notification output size of each electronic device, respectively; selecting an electronic device of the plurality of electronic devices having an output range that is the smallest of the determined output ranges, wherein selecting comprises selecting an electronic device from the plurality of electronic devices having the lowest audio output decibel level or selecting an electronic device from the plurality of electronic devices having the smallest notification output size, respectively; determining from the indication whether the originator of the electronic notification is on a stored list of originators; and in response to determining the originator is on the stored list of originators, transmitting the electronic notification to the selected electronic device for output. receiving an electronic notification via a communications network, wherein the electronic notification comprises an indication of an originator of the electronic notification; determining an output range for each electronic device in a plurality of electronic devices (216, 218) of a same user, wherein determining comprises determining an audio output decibel level of each electronic device or determining a notification output size of each electronic device, respectively; selecting an electronic device of the plurality of electronic devices having an output range that is the smallest of the determined output ranges, wherein selecting comprises selecting an electronic device from the plurality of electronic devices having the lowest audio output decibel level or selecting an electronic device from the plurality of electronic devices having the smallest notification output size, respectively; determining from the indication whether the originator of the electronic notification is on a stored list of originators; and in response to determining the originator is on the stored list of originators, transmitting the electronic notification to the selected electronic device for output.
Method of predicting a temperature distribution in a body comprising the steps of: a) obtaining a model of the body related to a temperature transport mechanism or temperature distribution in the body by: a1) obtaining from a database a reference model directed to a transport mechanism or temperature distribution mechanism in a reference body; a2) obtaining from images of the body under consideration a set of tissue parameters describing the body or parts of the body; a3) obtaining from the reference model and the tissue parameters an individualized model directed to a temperature transport mechanism or temperature distribution mechanism in the body under consideration; b) simulating an application of heat to at least a part of the body such as targeted tissue; c) predicting the temperature distribution in at least a part of the body using the model of the body, characterized in that the set of tissue parameters comprises namely the permeability surface area product of the endothelium and/or the fractional size of the extravascular extracellular space. a) obtaining a model of the body related to a temperature transport mechanism or temperature distribution in the body by: a1) obtaining from a database a reference model directed to a transport mechanism or temperature distribution mechanism in a reference body; a2) obtaining from images of the body under consideration a set of tissue parameters describing the body or parts of the body; a3) obtaining from the reference model and the tissue parameters an individualized model directed to a temperature transport mechanism or temperature distribution mechanism in the body under consideration; a1) obtaining from a database a reference model directed to a transport mechanism or temperature distribution mechanism in a reference body; a2) obtaining from images of the body under consideration a set of tissue parameters describing the body or parts of the body; a3) obtaining from the reference model and the tissue parameters an individualized model directed to a temperature transport mechanism or temperature distribution mechanism in the body under consideration; b) simulating an application of heat to at least a part of the body such as targeted tissue; c) predicting the temperature distribution in at least a part of the body using the model of the body,
System for extracting a fluid by suction, having: - a cabin monument for a vehicle, - a hose with a first fluid line, and - an adaptor with a connection housing which has a first fluid connection, with a handle and with a trigger unit arranged on or next to the latter, wherein the first fluid connection of the connection housing is configured for coupling to a first fluid counterpart connection, wherein the cabin monument has a controllable fluid main valve and a first control unit for controlling the fluid main valve, wherein a first inlet of the fluid main valve is configured for at least indirect coupling to a fluid suction source, wherein a first end of the hose is connected to the cabin monument in such a way that a corresponding first end of the first fluid line is fluidically connected at least indirectly to a first outlet of the fluid main valve, wherein a second end of the hose is connected to the adaptor in such a way that a corresponding second end of the first fluid line is fluidically connected at least indirectly to the first fluid connection, wherein the first control unit is configured for controlling the fluid main valve at least indirectly on the basis of a trigger signal brought about by the trigger unit. - a cabin monument for a vehicle, - a hose with a first fluid line, and - an adaptor with a connection housing which has a first fluid connection, with a handle and with a trigger unit arranged on or next to the latter, wherein the first fluid connection of the connection housing is configured for coupling to a first fluid counterpart connection, wherein the cabin monument has a controllable fluid main valve and a first control unit for controlling the fluid main valve, wherein a first inlet of the fluid main valve is configured for at least indirect coupling to a fluid suction source, wherein a first end of the hose is connected to the cabin monument in such a way that a corresponding first end of the first fluid line is fluidically connected at least indirectly to a first outlet of the fluid main valve, wherein a second end of the hose is connected to the adaptor in such a way that a corresponding second end of the first fluid line is fluidically connected at least indirectly to the first fluid connection, wherein the first control unit is configured for controlling the fluid main valve at least indirectly on the basis of a trigger signal brought about by the trigger unit.
A sample analyzer comprising: a reagent container retainer for retaining a reagent container having an opening (34a, 62b); a reagent container setting part in which to set the reagent-container retainer; an aspirating tube configured to aspirate a reagent in the reagent container; and an aspirating tube holder configured to hold the aspirating tube, wherein the aspirating tube holder includes a cover, the cover having an open portion provided from a bottom face thereof to a side face thereof, the cover covering the aspirating tube with a region thereof other than the open portion, wherein the aspirating tube holder include guide portions configured to guide the aspirating tube holder relative to the reagent-container retainer, such that the aspirating tube holder is allowed to reach a state where the aspirating tube has entered the reagent container or a state where the aspirating tube has retreated from the reagent container, wherein the reagent-container retainer includes a guided portion configured to be engaged with the guide portion to linearly move in a sliding manner, characterized in that the guided portion is configured by four guided rails (461a, 462a), two guided rails being provided on the outer face of each side in a width direction of the reagent-container retainer, respectively. a reagent container retainer for retaining a reagent container having an opening (34a, 62b); a reagent container setting part in which to set the reagent-container retainer; an aspirating tube configured to aspirate a reagent in the reagent container; and an aspirating tube holder configured to hold the aspirating tube, wherein the aspirating tube holder includes a cover, the cover having an open portion provided from a bottom face thereof to a side face thereof, the cover covering the aspirating tube with a region thereof other than the open portion, wherein the aspirating tube holder include guide portions configured to guide the aspirating tube holder relative to the reagent-container retainer, such that the aspirating tube holder is allowed to reach a state where the aspirating tube has entered the reagent container or a state where the aspirating tube has retreated from the reagent container, wherein the reagent-container retainer includes a guided portion configured to be engaged with the guide portion to linearly move in a sliding manner, characterized in that the guided portion is configured by four guided rails (461a, 462a), two guided rails being provided on the outer face of each side in a width direction of the reagent-container retainer, respectively.
A packaging for a food product, comprising: - a shaped main portion (11, 21, 31) defining a space apt to receive the food product, which main portion is made at least predominantly of a fibrous cellulosic material and - a cover portion (12, 22, 32) in a sheet form, which is made at least predominantly of a fibrous cellulosic material, which cover portion is sealingly connected to a peripheral rim of said shaped main portion, characterised in that the material of the main portion has a Taber stiffness 15° ISO 2493-73, measured in a homogeneous section region, comprised in a range of about 20-1000mN, and permeability to water vapour, measured in controlled conditions of 38°C and 90% R.H., comprised in a range of about 30-1500g/m 2 /24h; and that the material of the cover portion has a permeability to water vapour ≥ about 100g/m 2 /24h in controlled conditions of 38°C and 90% R.H, wherein the configuration of the packaging is such as to allow it to be placed into an oven for heating or baking the food product received therein, without being it necessary to open the package or to provide apertures therein. - a shaped main portion (11, 21, 31) defining a space apt to receive the food product, which main portion is made at least predominantly of a fibrous cellulosic material and - a cover portion (12, 22, 32) in a sheet form, which is made at least predominantly of a fibrous cellulosic material, which cover portion is sealingly connected to a peripheral rim of said shaped main portion, characterised in that the material of the main portion has a Taber stiffness 15° ISO 2493-73, measured in a homogeneous section region, comprised in a range of about 20-1000mN, and permeability to water vapour, measured in controlled conditions of 38°C and 90% R.H., comprised in a range of about 30-1500g/m 2 /24h; and that the material of the cover portion has a permeability to water vapour ≥ about 100g/m 2 /24h in controlled conditions of 38°C and 90% R.H, wherein the configuration of the packaging is such as to allow it to be placed into an oven for heating or baking the food product received therein, without being it necessary to open the package or to provide apertures therein.
A laser-ablatable flexographic printing plate blank or sleeve blank comprising a laser-ablatable layer having a thickness of from 300 to 4.000 μ m and comprising a film-forming material, wherein said film-forming material is a laser-ablatable material or said film-forming material has dispersed therein a laser-ablatable material, said laser-ablatable material being a polymeric material that when heated to 300°C at a rate of 10°C/minute, loses at least 60% of its mass to form at least one predominant low molecular weight product.
Method for manufacturing a water separator, including the following steps - providing a support structure annularly surrounding a longitudinal axis, - providing a hydrophobic screen mesh, - plasticizing (54b, 56b, 58b) the material of the support structure in areas radially exterior with respect to the longitudinal axis by ultrasound or by laser radiation, - arranging (54a, 56a, 58a) the screen mesh at the outer periphery on the support structure and - pressing (54c, 56c, 58c) the screen mesh into the plasticized areas. - providing a support structure annularly surrounding a longitudinal axis, - providing a hydrophobic screen mesh, - plasticizing (54b, 56b, 58b) the material of the support structure in areas radially exterior with respect to the longitudinal axis by ultrasound or by laser radiation, - arranging (54a, 56a, 58a) the screen mesh at the outer periphery on the support structure and - pressing (54c, 56c, 58c) the screen mesh into the plasticized areas.
Hob comprising a hob plate and comprising at least one heating device (16, 116) which is arranged beneath the hob plate, comprising: - a hob plate which is designed such that it transmits light in the wavelength range which is visible to the human eye, - IR-stimulable material (23a-e, 123) as an indicator light or lighting means which is formed in such a way that it can be excited to output light by light in the IR wavelength range, characterized in that: - the heating device (16, 116) has an electrical resistance heater (21, 121) and a support with thermal insulation, wherein the electrical resistance heater is arranged on the support with thermal insulation, - the IR-stimulable material (23a-d, 123) is arranged on the resistance heater (21, 121) and/or on the thermal insulation and/or on an additional support. - a hob plate which is designed such that it transmits light in the wavelength range which is visible to the human eye, - IR-stimulable material (23a-e, 123) as an indicator light or lighting means which is formed in such a way that it can be excited to output light by light in the IR wavelength range, - the heating device (16, 116) has an electrical resistance heater (21, 121) and a support with thermal insulation, wherein the electrical resistance heater is arranged on the support with thermal insulation, - the IR-stimulable material (23a-d, 123) is arranged on the resistance heater (21, 121) and/or on the thermal insulation and/or on an additional support.
A method of monitoring a flow of flow units within a geographical location composed of a plurality of geographically distinct zones having assigned thereto a respective physical process monitored by at least one sensor, characterized in that the method comprises: - establishing a plurality of processing areas for data segregation within the geographical location, each processing area being associated with a respective one of the plurality of geographically distinct zones; - generating, for each processing area, an activity module based on the physical process assigned to the associated geographically distinct zone, each activity module associated with a type of flow unit, defining an input for obtaining input flow units and an output for outputting output flow units, and performing processing of the flow units therebetween using input obtained from the at least one sensor monitoring the respective physical process assigned to the respective associated zone; and - linking the plurality of processing areas by coupling activity modules across different processing areas, comprising linking the flow outputs with the flow inputs of different activity modules, thereby segregating data processing across the different processing areas. - establishing a plurality of processing areas for data segregation within the geographical location, each processing area being associated with a respective one of the plurality of geographically distinct zones; - generating, for each processing area, an activity module based on the physical process assigned to the associated geographically distinct zone, each activity module associated with a type of flow unit, defining an input for obtaining input flow units and an output for outputting output flow units, and performing processing of the flow units therebetween using input obtained from the at least one sensor monitoring the respective physical process assigned to the respective associated zone; and - linking the plurality of processing areas by coupling activity modules across different processing areas, comprising linking the flow outputs with the flow inputs of different activity modules, thereby segregating data processing across the different processing areas.