mhurhangee/ep-ind-claims huggingface dataset:
Fuse having an integrated measurement function, - having a fuse housing, - having a fuse element, - having a measurement device, which has a transformer and also an electronics assembly electrically conductively connected to the transformer, characterized - in that the fuse housing has a first reception space bounded by a pressure body and also a second reception space physically delimited from the first reception space, - in that the fuse element is received and held in the first reception space, - in that the measurement device is received and held in the second reception space, - in that the height (h) of the transformer in a direction of longitudinal extent of the fuse element corresponds substantially to the height of the second reception space, and - in that the electronics assembly is arranged laterally to the transformer in a direction orthogonal to the direction of longitudinal extent of the fuse element. - having a fuse housing, - having a fuse element, - having a measurement device, which has a transformer and also an electronics assembly electrically conductively connected to the transformer, - in that the fuse housing has a first reception space bounded by a pressure body and also a second reception space physically delimited from the first reception space, - in that the fuse element is received and held in the first reception space, - in that the measurement device is received and held in the second reception space, - in that the height (h) of the transformer in a direction of longitudinal extent of the fuse element corresponds substantially to the height of the second reception space, and - in that the electronics assembly is arranged laterally to the transformer in a direction orthogonal to the direction of longitudinal extent of the fuse element. - in that the electronics assembly is arranged laterally to the transformer in a direction orthogonal to the direction of longitudinal extent of the fuse element.
A method of a first vehicle for vehicle-to-vehicle, V2V communication, comprising: receiving, within a transmission area of second vehicle (10, 63), a first message from a second vehicle (10, 63) comprising first channel quality information, CQI, related to a first position indicated in the message; comparing the first CQI with a second CQI related to a second position, wherein the second CQI is determined by the first vehicle; and selectively transmitting a second message comprising the first CQI and/or the second CQI to a third vehicle (10, 63) in accordance with the comparison of the first CQI and the second CQI, wherein the second position is identical to the first position or within a predetermined range about the first position. receiving, within a transmission area of second vehicle (10, 63), a first message from a second vehicle (10, 63) comprising first channel quality information, CQI, related to a first position indicated in the message; comparing the first CQI with a second CQI related to a second position, wherein the second CQI is determined by the first vehicle; and selectively transmitting a second message comprising the first CQI and/or the second CQI to a third vehicle (10, 63) in accordance with the comparison of the first CQI and the second CQI, wherein the second position is identical to the first position or within a predetermined range about the first position.
A measurement apparatus for measuring a position of a first pattern and a position of a second pattern provided in a target object, the apparatus comprising: an image capturing unit including a plurality of pixels which detect light from the first pattern and light from the second pattern, and configured to form an image capturing region used to capture the first pattern and the second pattern by the plurality of pixels; and a control unit configured to control the image capturing unit to obtain the position of the first pattern and the position of the second pattern based on an output from the image capturing unit, wherein the control unit is configured to set, based on the position of the first pattern and the position of the second pattern, a first image capturing region used to capture the first pattern and a second image capturing region used to capture the second pattern in the image capturing region, and is configured to adjust the image capturing unit such that a relative ratio of an intensity of a detection signal of the first pattern generated based on an output from the first image capturing region and an intensity of a detection signal of the second pattern generated based on an output from the second image capturing region falls within an allowable range. an image capturing unit including a plurality of pixels which detect light from the first pattern and light from the second pattern, and configured to form an image capturing region used to capture the first pattern and the second pattern by the plurality of pixels; and a control unit configured to control the image capturing unit to obtain the position of the first pattern and the position of the second pattern based on an output from the image capturing unit, wherein the control unit is configured to set, based on the position of the first pattern and the position of the second pattern, a first image capturing region used to capture the first pattern and a second image capturing region used to capture the second pattern in the image capturing region, and is configured to adjust the image capturing unit such that a relative ratio of an intensity of a detection signal of the first pattern generated based on an output from the first image capturing region and an intensity of a detection signal of the second pattern generated based on an output from the second image capturing region falls within an allowable range.
Synthetic thrombus model for learning the surgical removal of a blood clot from a blood vessel using mechanical thrombectomy in a simulation of various stroke scenarios in a training model, which simulates a lifelike shape with a realistic feel of a human blood clot thereby that an elongated base body based on an elastically deformable main material with a Shore A hardness in the range of 0 to 10 together with an additive for the simulation of different types of thrombi is provided, characterized in that, the property profile of the base body is variable at least with respect to hardness and fragmentation by providing a material combination of the main material and of at least an added amount of a stabilizing component, being an adhesive between 5 and 40 wt.-%, and/or a reinforcing material, made of additively manufactured structures having an incorporated orientation, to form a composite structure.
An aerosol can dispensing system for repeated dispensing of the contents of an aerosol can, the aerosol can having a body and an upper end operatively supporting an aerosol can valve mechanism, the aerosol can dispensing system comprising: an aerosol can adapter having an aerosol can retaining surface for retaining the upper end of the aerosol can; a drive mechanism operatively connected to the aerosol can adapter, the drive mechanism having: an electric motor and power system providing rotary power; characterized in that the drive mechanism is a scotch yoke mechanism which further comprises a torque arm operatively connected to the electric motor, the torque arm supporting a spindle offset with respect to a rotation axis of the electric motor; a lever arm having a first end having a slot engaged with the spindle and a second end engageable with the aerosol can valve mechanism, the first and second ends pivotable about a pivot point P; wherein rotation of the torque arm about the rotation axis causes reciprocating linear movement of the spindle within the slot and movement of the second end relative to the aerosol can valve mechanism to effect opening and closing of the aerosol can valve mechanism. an aerosol can adapter having an aerosol can retaining surface for retaining the upper end of the aerosol can; a drive mechanism operatively connected to the aerosol can adapter, the drive mechanism having: an electric motor and power system providing rotary power; characterized in that the drive mechanism is a scotch yoke mechanism which further comprises a torque arm operatively connected to the electric motor, the torque arm supporting a spindle offset with respect to a rotation axis of the electric motor; a lever arm having a first end having a slot engaged with the spindle and a second end engageable with the aerosol can valve mechanism, the first and second ends pivotable about a pivot point P; an electric motor and power system providing rotary power; characterized in that the drive mechanism is a scotch yoke mechanism which further comprises a torque arm operatively connected to the electric motor, the torque arm supporting a spindle offset with respect to a rotation axis of the electric motor; a lever arm having a first end having a slot engaged with the spindle and a second end engageable with the aerosol can valve mechanism, the first and second ends pivotable about a pivot point P; wherein rotation of the torque arm about the rotation axis causes reciprocating linear movement of the spindle within the slot and movement of the second end relative to the aerosol can valve mechanism to effect opening and closing of the aerosol can valve mechanism.
A gas distribution device having multiple gas inlet regions (E1 to E5), which are arranged on top of one another and from which different process gases or at least one carrier gas can be introduced into a process chamber of a CVD reactor, with at least five gas outlet zones (Z1 to Z12) that are arranged on top of one another at different levels and respectively have a gas distribution volume, into which a supply conduit for introducing a gas flow leads, wherein said gas distribution volume is separated from an adjacent gas distribution volume (17, 17', 17") by an intermediate base and has a gas outlet wall with gas outlet openings, and wherein the gas outlet walls of the gas outlet zones (Z1 to Z12) point in the same direction and multiple adjacent gas outlet walls jointly form a gas inlet region (E1 to E5), through which a uniform process gas respectively exits into the process chamber, wherein valves or mechanical switchover elements, which are assigned to the supply conduits in such a way that the height of the gas inlet regions (E1 to E5) can be adjusted by switching on, switching off or switching over one or more supply conduits.
A method for preparing a light emitting device, the method comprising: forming a layer comprising a material capable of transporting and injecting electrons on a cathode, wherein the cathode is formed on a substrate, and wherein the material capable of transporting and injecting electrons comprises an inorganic material comprising zinc oxide; applying an emissive layer comprising quantum dots thereover; forming a layer comprising a material capable of transporting holes comprising an organic material over the emissive layer; forming a layer comprising a hole injection material over the layer comprising a material capable of transporting holes; and forming an anode over the layer comprising a hole injection material; characterized in that the layer comprising an inorganic material comprising zinc oxide comprises a stratified structure including two or more horizontal zones having different conductivities from each other, wherein the surface of the formed layer comprising a material capable of transporting and injecting electrons comprising an inorganic material comprising zinc oxide is surface treated with an oxidizing agent so as to obtain a zone comprising intrinsic zinc oxide on a side of the layer closer to the emissive layer. forming a layer comprising a material capable of transporting and injecting electrons on a cathode, wherein the cathode is formed on a substrate, and wherein the material capable of transporting and injecting electrons comprises an inorganic material comprising zinc oxide; applying an emissive layer comprising quantum dots thereover; forming a layer comprising a material capable of transporting holes comprising an organic material over the emissive layer; forming a layer comprising a hole injection material over the layer comprising a material capable of transporting holes; and forming an anode over the layer comprising a hole injection material; characterized in that the layer comprising an inorganic material comprising zinc oxide comprises a stratified structure including two or more horizontal zones having different conductivities from each other, wherein the surface of the formed layer comprising a material capable of transporting and injecting electrons comprising an inorganic material comprising zinc oxide is surface treated with an oxidizing agent so as to obtain a zone comprising intrinsic zinc oxide on a side of the layer closer to the emissive layer.
A method of decoding an input encoded multi-channel audio signal, consisting of defined channels, comprising: generating signals to be input to decorrelators using a down-mixed signal, as the encoded multi-channel signal, based on spatial cues; decorrelating the generated signals, as decorrelated signals; and mixing the down-mixed signal and the decorrelated signals using the spatial cues, wherein spatial cues first used to up-mix the down-mixed signal include respective information to decode at least one of the defined channels, further comprising: calculating a number of levels of corresponding up-mixing of the down-mixed signal, with respect to each multi-channel of the encoded multi-channel signal, according to an available reproduction configuration of a corresponding decoding end; and controlling the generating of the signals to be input to the decorrelators, the decorrelating of the generated signals, and the mixing of the down mixed signal and the decorrelated signals based on the calculated number of levels of the corresponding up-mixing of the down-mixed signal. generating signals to be input to decorrelators using a down-mixed signal, as the encoded multi-channel signal, based on spatial cues; decorrelating the generated signals, as decorrelated signals; and mixing the down-mixed signal and the decorrelated signals using the spatial cues, wherein spatial cues first used to up-mix the down-mixed signal include respective information to decode at least one of the defined channels, further comprising: calculating a number of levels of corresponding up-mixing of the down-mixed signal, with respect to each multi-channel of the encoded multi-channel signal, according to an available reproduction configuration of a corresponding decoding end; and controlling the generating of the signals to be input to the decorrelators, the decorrelating of the generated signals, and the mixing of the down mixed signal and the decorrelated signals based on the calculated number of levels of the corresponding up-mixing of the down-mixed signal.
An incident prediction system, the system comprising: - a crowd detection interface (120, 420) for receiving a plurality of mobile device identifiers (022, 422) of a plurality of mobile devices from a crowd detection unit, - an incident database (040, 410) wherein a plurality of weight factors (042, 404, 444) is associated with a plurality of stored mobile device identifiers (042, 402), wherein the weight factors (042, 404, 444) are computed based on a proximity of the associated mobile devices (042, 402) to a position of at least one historic incident that occurred in the past; - a prediction subsystem configured for: i) identifying one or more matches between at least one of the received mobile device identifiers (022, 422) and the stored mobile device identifiers (042, 402) to obtain one or more weight factors (042, 404, 444) associated with the received mobile device identifiers (022, 422), ii) totaling the one or more weight factors so as to obtain a total weight factor, iii) generating prediction data of an occurrence of the incident based on the total weight factor. - a crowd detection interface (120, 420) for receiving a plurality of mobile device identifiers (022, 422) of a plurality of mobile devices from a crowd detection unit, - an incident database (040, 410) wherein a plurality of weight factors (042, 404, 444) is associated with a plurality of stored mobile device identifiers (042, 402), wherein the weight factors (042, 404, 444) are computed based on a proximity of the associated mobile devices (042, 402) to a position of at least one historic incident that occurred in the past; - a prediction subsystem configured for: i) identifying one or more matches between at least one of the received mobile device identifiers (022, 422) and the stored mobile device identifiers (042, 402) to obtain one or more weight factors (042, 404, 444) associated with the received mobile device identifiers (022, 422), ii) totaling the one or more weight factors so as to obtain a total weight factor, iii) generating prediction data of an occurrence of the incident based on the total weight factor. i) identifying one or more matches between at least one of the received mobile device identifiers (022, 422) and the stored mobile device identifiers (042, 402) to obtain one or more weight factors (042, 404, 444) associated with the received mobile device identifiers (022, 422), ii) totaling the one or more weight factors so as to obtain a total weight factor, iii) generating prediction data of an occurrence of the incident based on the total weight factor.
A wire harness, comprising: a plurality of conducting paths (19;51;61), a metal pipe into which the plurality of conducting paths (19;51;61) are inserted; and a conducting path protective cap which includes one through hole for the plurality of conducting paths (19;51;61), and an engaging part which is engaged with a terminal part (22;52;62) of the metal pipe, wherein the terminal part (22;52;62) of the metal pipe has a ring-like cap engagement space (30;55;65) between the plurality of conducting paths (19;51;61) and a pipe inner surface of the metal pipe, the ring-like cap engagement space (30;55;65) being formed by crushing the terminal part (22;52;62) towards a predetermined direction (A;C;E) from a pipe outer surface of the metal pipe, and the ring-like cap engagement space (30;55;65) includes a reduced space (34;56;66) and an enlarged space (35;57;67) formed due to a crushing of the terminal part (22;52;62), wherein the reduced part is formed by narrowing a part of a gap between the plurality of conducting paths (19;51;61) and the pipe inner surface due to the crushing, and the enlarged space (35;57;67) is formed by enlarging a part of the gap in accordance with a formation of the reduced space (34;56;66). a plurality of conducting paths (19;51;61), a metal pipe into which the plurality of conducting paths (19;51;61) are inserted; and a conducting path protective cap which includes one through hole for the plurality of conducting paths (19;51;61), and an engaging part which is engaged with a terminal part (22;52;62) of the metal pipe, wherein the terminal part (22;52;62) of the metal pipe has a ring-like cap engagement space (30;55;65) between the plurality of conducting paths (19;51;61) and a pipe inner surface of the metal pipe, the ring-like cap engagement space (30;55;65) being formed by crushing the terminal part (22;52;62) towards a predetermined direction (A;C;E) from a pipe outer surface of the metal pipe, and the ring-like cap engagement space (30;55;65) includes a reduced space (34;56;66) and an enlarged space (35;57;67) formed due to a crushing of the terminal part (22;52;62), wherein the reduced part is formed by narrowing a part of a gap between the plurality of conducting paths (19;51;61) and the pipe inner surface due to the crushing, and the enlarged space (35;57;67) is formed by enlarging a part of the gap in accordance with a formation of the reduced space (34;56;66).
A method for preparing polyphenyl polymethylene polyisocyanates having an NCO number, determined according to DIN EN ISO 14896, of at least 29% comprising less than 2% by weight ureas, determined by NMR, less than 8% by weight carbodiimides or uretonimines, determined by NMR, and less than 1000 ppm organic chlorine compounds, determined by high-resolution mass spectrometry or according to ASTM D4663-10, wherein (i) polyphenyl polymethylene polyamines are reacted with organic carbonates to give the corresponding polyphenyl polymethylene polycarbamates, (ii) the polyphenyl polymethylene polycarbamates are thermally cleaved to give the polyphenyl polymethylene polyisocyanates, wherein, prior to the thermal cleavage, the free amino groups or urea groups present in the carbamate crude mixture comprising the polyphenyl polymethylene polycarbamates are reacted with a derivatizing reagent to give amide groups or urethane groups. (i) polyphenyl polymethylene polyamines are reacted with organic carbonates to give the corresponding polyphenyl polymethylene polycarbamates, (ii) the polyphenyl polymethylene polycarbamates are thermally cleaved to give the polyphenyl polymethylene polyisocyanates,
Process for dyeing or lightening keratin fibres, comprising the step of extemporaneously mixing at the time of use two compositions and and of applying the said mixture to the said fibres; the said mixture comprising at least 25% by weight of fatty substances relative to the total weight of the composition obtained from the mixing of two compositions +; with: ▪ representing a composition in direct emulsion form whose oil content is at least 30% by weight relative to the weight of composition, and comprising: i) at least one nonionic surfactant with an HLB ranging from 1.5 to 10, which is solid at room temperature and at atmospheric pressure; ii) at least one basifying agent; iii) optionally at least one additional surfactant other than the solid nonionic surfactants i), which is preferably nonionic with an HLB of greater than 10; iv) optionally at least one dye; and ▪ representing a composition comprising at least one chemical oxidizing agent. ▪ representing a composition in direct emulsion form whose oil content is at least 30% by weight relative to the weight of composition, and comprising: i) at least one nonionic surfactant with an HLB ranging from 1.5 to 10, which is solid at room temperature and at atmospheric pressure; ii) at least one basifying agent; iii) optionally at least one additional surfactant other than the solid nonionic surfactants i), which is preferably nonionic with an HLB of greater than 10; iv) optionally at least one dye; and i) at least one nonionic surfactant with an HLB ranging from 1.5 to 10, which is solid at room temperature and at atmospheric pressure; ii) at least one basifying agent; iii) optionally at least one additional surfactant other than the solid nonionic surfactants i), which is preferably nonionic with an HLB of greater than 10; iv) optionally at least one dye; and ▪ representing a composition comprising at least one chemical oxidizing agent.