mhurhangee/ep-ind-claims huggingface dataset:
A tire monitoring system comprising: a remote tire monitoring unit provided within a tire, a central controller, characterized in that it further comprises: a speech indicating unit and a brake deceleration mechanism; wherein, said remote tire monitoring unit monitors and samples tire pressure at a sampling frequency of 5Hz∼ 20Hz, and wirelessly transmits the sampling data packet signals to said central controller; said central controller wirelessly receives said tire condition sampling data packet signals, then processes said data packet signals by decoding and calculating so as to generate speech indicating order and/or brake deceleration order, and subsequently transmits the speech indicating order to the speech indicating unit, while the brake deceleration order to the brake deceleration mechanism; said speech indicating unit, used to receive said speech indicating order and output speech indication information; said brake deceleration mechanism, used to receive said brake deceleration order and perform brake deceleration action. a speech indicating unit and a brake deceleration mechanism; wherein, said remote tire monitoring unit monitors and samples tire pressure at a sampling frequency of 5Hz∼ 20Hz, and wirelessly transmits the sampling data packet signals to said central controller; said central controller wirelessly receives said tire condition sampling data packet signals, then processes said data packet signals by decoding and calculating so as to generate speech indicating order and/or brake deceleration order, and subsequently transmits the speech indicating order to the speech indicating unit, while the brake deceleration order to the brake deceleration mechanism; said speech indicating unit, used to receive said speech indicating order and output speech indication information; said brake deceleration mechanism, used to receive said brake deceleration order and perform brake deceleration action.
A method of making a vacuum insulating glass unit, the method comprising: providing first and second glass substrates; forming an integrated pump-out tube in the first substrate such that, when viewed in cross-section, the first glass substrate includes: (a) first and second channel portions provided adjacent to opposite sides of a through-hole, and (b) first and second sealing wall portions defined therebetween; sealing together the first and second substrates in connection with an edge seal provided proximate a peripheral edge of the first and/or second substrates, a cavity between at least the first and second substrates, and a plurality of spacers being provided between at least the first and second substrates in the cavity and helping to maintain the first and second substrates in substantially parallel, spaced-apart relation to one another; evacuating the cavity to a pressure less than atmospheric pressure; and preferentially heating the first and second sealing wall portions to cause them to sag together and form a bridge covering the through-hole for hermetically sealing the VIG unit. providing first and second glass substrates; forming an integrated pump-out tube in the first substrate such that, when viewed in cross-section, the first glass substrate includes: (a) first and second channel portions provided adjacent to opposite sides of a through-hole, and (b) first and second sealing wall portions defined therebetween; sealing together the first and second substrates in connection with an edge seal provided proximate a peripheral edge of the first and/or second substrates, a cavity between at least the first and second substrates, and a plurality of spacers being provided between at least the first and second substrates in the cavity and helping to maintain the first and second substrates in substantially parallel, spaced-apart relation to one another; evacuating the cavity to a pressure less than atmospheric pressure; and preferentially heating the first and second sealing wall portions to cause them to sag together and form a bridge covering the through-hole for hermetically sealing the VIG unit.
A method for producing a sweet juice composition, comprising: a) providing fruit of the Cucurbitaceae family, wherein the fruit comprises terpene glycosides, and wherein at least one of the terpene glycosides is mogroside V; b) obtaining juice from the fruit, wherein the juice comprises terpene glycosides, and wherein at least one of the terpene glycosides is mogroside V; c) providing a cation exchange resin and an anion exchange resin, wherein the cation exchange resin is regenerated in acid form, and wherein the anion exchange resin is regenerated in alkali form; d) contacting the juice with the cation exchange resin to produce a partially processed juice; and e) contacting the partially processed juice with the anion exchange resin to produce a sweet juice composition, wherein the sweet juice composition retains at least 60% of the mogroside V from the juice as determined by high-pressure liquid chromatography (HPLC). a) providing fruit of the Cucurbitaceae family, wherein the fruit comprises terpene glycosides, and wherein at least one of the terpene glycosides is mogroside V; b) obtaining juice from the fruit, wherein the juice comprises terpene glycosides, and wherein at least one of the terpene glycosides is mogroside V; c) providing a cation exchange resin and an anion exchange resin, wherein the cation exchange resin is regenerated in acid form, and wherein the anion exchange resin is regenerated in alkali form; d) contacting the juice with the cation exchange resin to produce a partially processed juice; and e) contacting the partially processed juice with the anion exchange resin to produce a sweet juice composition,
Use of flake-form effect pigments for increasing the infrared reflection of a dark or black layer composite consisting of a substrate and a coating on the substrate, where the coating, in addition or as an alternative to a carbon-containing black pigment, comprises at least one flake-form effect pigment which has at least one Fe 3 O 4 -containing layer or FeTiOs-containing layer on a flake-form Al 2 O 3 or SiO 2 support, where the layer composite has an L* 15 value in the range from 1 to 60, and where the infrared reflection of the layer composite is increased, at least in the wavelength range from 850 nm to 1570 nm, compared with a dark or black layer composite comprising a substrate and a coating where the layer composite comprises the carbon-containing black pigment, has an L*15 value in the said range and does not comprise the at least one flake-form effect pigment.
Crane with a crane pillar arranged rotatable about a vertical axis on a base frame and with a first crane arm mounted pivotable via a first joint on the crane pillar, wherein at least one hose leads from a first connection point on the crane pillar or the base frame to a second connection point in or on the first crane arm, wherein a pivoting movement of the crane arm relative to the crane pillar leads to an increase or decrease in the distance between the first and second connection points (13, 14), and wherein the sections of the at least one hose becoming excessive in the case of a decrease in the distance between the first and second connection points (13, 14) are arranged inside the first crane arm, characterized in that the at least one hose enters the first crane arm through an opening arranged on the underside of the first crane arm close to the first joint.
Cooling module comprising a ventilation device, in particular for a motor vehicle, the ventilation device being intended to generate an air flow (F1, F2) passing through a set of heat exchangers comprising at least one first and one second heat exchanger, the first heat exchanger being configured to be able to absorb heat energy from the air flow (F1, F2) and the second heat exchanger being a radiator, the ventilation device comprising at least one tangential-flow turbomachine for moving said air flow (F1, F2) by rotation of said tangential-flow turbomachine, the cooling module being characterized in that: the tangential-flow turbomachine is reversible so as to generate, in a first direction of rotation, a first air flow passing successively through the first and then the second heat exchanger and, in a second direction of rotation that is opposite to the first direction of rotation, a second air flow passing successively through the second and then the first heat exchanger.
Rotary joint comprising: a socket rod having a socket rod flange with a basically spheroid concave bearing surface at a first end; a housing nut encircling the socket rod and having a threaded wrenching head; a ball rod having a basically spheroid convex bearing surface and threaded side walls around the convex bearing surface; and a joint actuator configured to actuate relative movement of the socket rod flange and the ball rod; wherein a diameter of the threaded side walls of the ball rod corresponds to a diameter of the threaded wrenching head of the housing nut; and wherein the joint actuator is arranged in between the housing nut and the socket rod flange. a socket rod having a socket rod flange with a basically spheroid concave bearing surface at a first end; a housing nut encircling the socket rod and having a threaded wrenching head; a ball rod having a basically spheroid convex bearing surface and threaded side walls around the convex bearing surface; and a joint actuator configured to actuate relative movement of the socket rod flange and the ball rod; wherein a diameter of the threaded side walls of the ball rod corresponds to a diameter of the threaded wrenching head of the housing nut; and wherein the joint actuator is arranged in between the housing nut and the socket rod flange.
A system for monitoring physiological signals in a mammal, the system comprising: a processing device; and a wearable medical sensor configured to detect and record cardiac rhythm data from a mammal, wherein the wearable medical sensor is configured to extract a feature from the cardiac rhythm data, wherein the wearable medical sensor comprises a user trigger input; wherein the wearable medical sensor is configured to transmit the feature to the processing device when a user activates the user trigger input based on a perceived cardiac event, wherein the processing device is configured to analyze the feature and identify cardiac data locations of interest that are likely to include cardiac arrhythmia and transmit the cardiac data locations of interest back to the wearable medical sensor; wherein the sensor is configured to apply additional analysis to the cardiac data corresponding to the cardiac data locations of interest transmitted back to the sensor, the said additional analysis comprising a rhythm confidence determination. a processing device; and a wearable medical sensor configured to detect and record cardiac rhythm data from a mammal, wherein the wearable medical sensor is configured to extract a feature from the cardiac rhythm data, wherein the wearable medical sensor comprises a user trigger input; wherein the wearable medical sensor is configured to transmit the feature to the processing device when a user activates the user trigger input based on a perceived cardiac event, wherein the processing device is configured to analyze the feature and identify cardiac data locations of interest that are likely to include cardiac arrhythmia and transmit the cardiac data locations of interest back to the wearable medical sensor; wherein the sensor is configured to apply additional analysis to the cardiac data corresponding to the cardiac data locations of interest transmitted back to the sensor, the said additional analysis comprising a rhythm confidence determination.
A syringe system, comprising: a plunger including: a microcontroller, a battery, and a coil connected to the microcontroller and the battery by two or more electrical leads; and a syringe barrel having a proximal end, a distal end, and a cylindrical sidewal defining a longitudinal axis, the cylindrical sidewall extending longitudinally between the proximal and distal ends, the sidewall having an exterior surface and defining an internal volume, the plunger being positioned between the proximal and distal ends of the syringe barrel and being movable within the internal volume with respect to the syringe barrel in the longitudinal direction, characterized in that the syringe barrel further includes: a label disposed on the sidewall having at least two conductive strips extending in a non-parallel direction with respect to the longitudinal axis having unique lengths; wherein the microcontroller is configured to determine a position of the plunger with respect to the syringe barrel by measuring a current induced in the coil by the at least two conductive strips. a plunger including: a microcontroller, a battery, and a coil connected to the microcontroller and the battery by two or more electrical leads; and a microcontroller, a battery, and a coil connected to the microcontroller and the battery by two or more electrical leads; and a syringe barrel having a proximal end, a distal end, and a cylindrical sidewal defining a longitudinal axis, the cylindrical sidewall extending longitudinally between the proximal and distal ends, the sidewall having an exterior surface and defining an internal volume, the plunger being positioned between the proximal and distal ends of the syringe barrel and being movable within the internal volume with respect to the syringe barrel in the longitudinal direction, characterized in that the syringe barrel further includes: a label disposed on the sidewall having at least two conductive strips extending in a non-parallel direction with respect to the longitudinal axis having unique lengths; wherein the microcontroller is configured to determine a position of the plunger with respect to the syringe barrel by measuring a current induced in the coil by the at least two conductive strips.
Apparatus, comprising: an electrical interface; and a processor configured: to construct a baseline impedance model that models a portion of a heart of a subject as a collection of three-dimensional cells, each of which corresponds to a respective volume within the heart, at least some of the cells being designated as baseline-impedance cells, for each of which the BIM specifies a respective baseline impedance (z B), to ascertain based on a signal received via the electrical interface, an impedance (z 1,...,z N) between a catheter electrode, which is within the heart, and an external electrode that is externally coupled to the subject, to identify one of the baseline-impedance cells as a reference cell, to ascertain that the catheter electrode is within a threshold distance of tissue of the heart, by comparing the ascertained impedance to the baseline impedance (z B) that is specified for the reference cell, and to update a map of the tissue, in response to ascertaining that the catheter electrode is within the threshold distance of the tissue. an electrical interface; and a processor configured: to construct a baseline impedance model that models a portion of a heart of a subject as a collection of three-dimensional cells, each of which corresponds to a respective volume within the heart, at least some of the cells being designated as baseline-impedance cells, for each of which the BIM specifies a respective baseline impedance (z B), to ascertain based on a signal received via the electrical interface, an impedance (z 1,...,z N) between a catheter electrode, which is within the heart, and an external electrode that is externally coupled to the subject, to identify one of the baseline-impedance cells as a reference cell, to ascertain that the catheter electrode is within a threshold distance of tissue of the heart, by comparing the ascertained impedance to the baseline impedance (z B) that is specified for the reference cell, and to update a map of the tissue, in response to ascertaining that the catheter electrode is within the threshold distance of the tissue. to construct a baseline impedance model that models a portion of a heart of a subject as a collection of three-dimensional cells, each of which corresponds to a respective volume within the heart, at least some of the cells being designated as baseline-impedance cells, for each of which the BIM specifies a respective baseline impedance (z B), to ascertain based on a signal received via the electrical interface, an impedance (z 1,...,z N) between a catheter electrode, which is within the heart, and an external electrode that is externally coupled to the subject, to identify one of the baseline-impedance cells as a reference cell, to ascertain that the catheter electrode is within a threshold distance of tissue of the heart, by comparing the ascertained impedance to the baseline impedance (z B) that is specified for the reference cell, and to update a map of the tissue, in response to ascertaining that the catheter electrode is within the threshold distance of the tissue.
Beverage preparation machine comprising a mixing chamber having an inlet for receiving a doser outlet of an exchangeable supply pack, a beverage outlet, liquid supply means including a liquid flow path for supplying water under pressure to the mixing chamber; air supply means for supplying air to the liquid flow path, and a drive shaft, characterized in that the beverage preparation machine further comprises a ceramic valve unit, the ceramic valve unit including a housing (3, 5), a water inlet pipe for receiving hot water, an outflow opening, and first and second ceramic elements (15, 21) within the housing, the first and second ceramic elements (15, 21) each having mutually abutting surfaces and being relatively movable in a plane common to the abutting surfaces, wherein the plane common to the abutting surfaces is downstream of the water inlet pipe and the first ceramic element, but upstream of the second ceramic element and the outflow opening, wherein the first ceramic element has at least differently sized first and second openings (51, 53) for allowing a liquid flow there through, wherein the second ceramic element has only a single liquid flow opening permanently aligned with the outflow opening, and wherein the first ceramic element is engaged for sliding movement by an operating arm sector of a material different from ceramic.
An outer surface panel comprising: a panel main body that is provided on a surface of a casing of an indoor unit of an air conditioner accommodating a blower fan and a heat exchanger therein, characterized in that the panel main body is provided with an outer peripheral groove that is recessed from an inside of the panel main body and extends continuously so as to enclose a knockout portion that is one region on the panel main body, and an inner groove that is recessed from the inside of the panel main body, is connected to the outer peripheral groove, and extends continuously so as to partition the knockout portion, wherein the outer peripheral groove (15 extends forward from a rear end edge of the panel main body. a panel main body that is provided on a surface of a casing of an indoor unit of an air conditioner accommodating a blower fan and a heat exchanger therein, characterized in that the panel main body is provided with an outer peripheral groove that is recessed from an inside of the panel main body and extends continuously so as to enclose a knockout portion that is one region on the panel main body, and an inner groove that is recessed from the inside of the panel main body, is connected to the outer peripheral groove, and extends continuously so as to partition the knockout portion,
A method of wireless communication performed by a user equipment, UE, comprising: transmitting, to a base station, information identifying one or more control channel monitoring span capabilities; receiving, from the base station, information identifying a plurality of control channel monitoring occasions; generating a bitmap based at least in part on the plurality of control channel monitoring occasions identified in the received information, wherein the bitmap corresponds to a plurality of slots and wherein an /th bit of the bitmap is equal to 1 when an /th symbol of any slot is part of any control channel monitoring occasion of the plurality of control channel monitoring occasions; and determining, in accordance with the bitmap and based at least in part on the information identifying the one or more control channel monitoring span capabilities, a span pattern indicating one or more locations of one or more spans in a slot of the plurality of slots. transmitting, to a base station, information identifying one or more control channel monitoring span capabilities; receiving, from the base station, information identifying a plurality of control channel monitoring occasions; generating a bitmap based at least in part on the plurality of control channel monitoring occasions identified in the received information, wherein the bitmap corresponds to a plurality of slots and wherein an /th bit of the bitmap is equal to 1 when an /th symbol of any slot is part of any control channel monitoring occasion of the plurality of control channel monitoring occasions; and determining, in accordance with the bitmap and based at least in part on the information identifying the one or more control channel monitoring span capabilities, a span pattern indicating one or more locations of one or more spans in a slot of the plurality of slots.
A method for welding two parts made of dissimilar metal materials (2, 3) in a butt welding configuration by means of a laser beam, wherein one metal material has a lower melting point than the other metal material, characterized in that it comprises the following steps: - before contacting the two parts applying an auxiliary material in powder form on the edge of one or of both parts made of dissimilar metal materials (2, 3) to be joined, the auxiliary material being applied right in the contact area between the two dissimilar metal materials (2, 3) to be welded, - placing the two parts made of dissimilar metal materials (2, 3) to be joined facing one another in a butt welding configuration, establishing the contact area between the two parts made of dissimilar metal materials (2, 3), - applying a laser beam on the part made of a material having a lower melting point, the laser beam being focused such that the diameter of the irradiated area is such that the irradiance reached on the material having a lower melting point allows melting this material without the material having a higher melting point melting, - providing a welding wire in the irradiated area, simultaneously with the interaction of the laser beam with the material having a lower melting point, wherein the auxiliary material and the welding wire also melt and mix with the material having a lower melting point. - before contacting the two parts applying an auxiliary material in powder form on the edge of one or of both parts made of dissimilar metal materials (2, 3) to be joined, the auxiliary material being applied right in the contact area between the two dissimilar metal materials (2, 3) to be welded, - placing the two parts made of dissimilar metal materials (2, 3) to be joined facing one another in a butt welding configuration, establishing the contact area between the two parts made of dissimilar metal materials (2, 3), - applying a laser beam on the part made of a material having a lower melting point, the laser beam being focused such that the diameter of the irradiated area is such that the irradiance reached on the material having a lower melting point allows melting this material without the material having a higher melting point melting, - providing a welding wire in the irradiated area, simultaneously with the interaction of the laser beam with the material having a lower melting point, wherein the auxiliary material and the welding wire also melt and mix with the material having a lower melting point.