mhurhangee/ep-ind-claims huggingface dataset:
Process for the preparation of hollow particles comprising, said hollow particles having a single hollow cavity surrounded by a coating, comprising: 1/ depositing by liquid spraying, in particular in a fluidized bed, onto a substrate partially soluble in a liquid medium M, a coating comprising: - 40 to 100 % by weight of at least one compound which is insoluble in water at a pH of less than 5, said compound which is insoluble in water at a pH of less than 5 comprising at least one polymer, and - 60 to 0 % of at least one water-soluble compound, thus obtaining a particle comprising said sbtrate surrounded by a coating layer, 2/ extracting a part of the substrate into the medium M, 3/ drying the particles obtained in stage 2. 1/ depositing by liquid spraying, in particular in a fluidized bed, onto a substrate partially soluble in a liquid medium M, a coating comprising: - 40 to 100 % by weight of at least one compound which is insoluble in water at a pH of less than 5, said compound which is insoluble in water at a pH of less than 5 comprising at least one polymer, and - 60 to 0 % of at least one water-soluble compound, thus obtaining a particle comprising said sbtrate surrounded by a coating layer, - 40 to 100 % by weight of at least one compound which is insoluble in water at a pH of less than 5, said compound which is insoluble in water at a pH of less than 5 comprising at least one polymer, and - 60 to 0 % of at least one water-soluble compound, thus obtaining a particle comprising said sbtrate surrounded by a coating layer, 2/ extracting a part of the substrate into the medium M, 3/ drying the particles obtained in stage 2.
A heated sensitive molecule layer sensor made according to an integrated circuit manufacturing technology, comprising: • an insulating substrate bearing the sensitive layer; • two complementary measurement electrodes (E1, E2) in the form of two adjacent conductive tracks configured in electrical contact with the sensitive layer; and • a heating element in the form of a resistive track arranged on the substrate for uniformly heating an active area of the sensitive layer; the sensor being characterized in that the resistive track comprises at least three power supply points regularly spaced over the length of the resistive track, and comprising • a first common supply line connected to the points of odd rank of the resistive track; • a second common supply line connected to the points of even rank of the resistive track; and • a supply voltage (Vh') configured to apply between the first and the second common supply lines a voltage at most equal to 5.7 volts divided by a number of segments defined between the power supply points. • an insulating substrate bearing the sensitive layer; • two complementary measurement electrodes (E1, E2) in the form of two adjacent conductive tracks configured in electrical contact with the sensitive layer; and • a heating element in the form of a resistive track arranged on the substrate for uniformly heating an active area of the sensitive layer; the sensor being characterized in that the resistive track comprises at least three power supply points regularly spaced over the length of the resistive track, and comprising the resistive track comprises at least three power supply points regularly spaced over the length of the resistive track, and comprising • a first common supply line connected to the points of odd rank of the resistive track; • a second common supply line connected to the points of even rank of the resistive track; and • a supply voltage (Vh') configured to apply between the first and the second common supply lines a voltage at most equal to 5.7 volts divided by a number of segments defined between the power supply points.
A headset with a Bluetooth device comprising an ear loud speaker with connection means for connection to a detachable ear unit (5, 5a, 5b) adapted to be inserted into the auditory canal of the ear for sound tight abutment against the auditory canal, wherein the Bluetooth device is equipped with a microphone for receiving ambient sound, wherein the microphone is provided with a sound attenuator, characterized in that the connection means is formed by a loud speaker housing, the loud speaker housing having a first part facing the ear unit (5, 5a, 5b) and a second part placed close to the first part and which extends from the first part in a direction towards the Bluetooth device, wherein the first part has a larger diameter than the second part, wherein the first part has a decreasing diameter in the direction from the second part towards the ear unit.
A power tool comprising a housing (10, 20, 30, 30A) defining therein a mechanism chamber, a lubricant being inserted in an interior of the mechanical chamber; an electric motor accommodated in the housing; a speed change mechanism disposed in the mechanism chamber and connected to the motor for converting a rotary motion of the motor, and a protrusion member protruding to the interior of the mechanism chamber from the exterior of the mechanism chamber, the protrusion member providing a communication passage that has one opening open at a leading end side of the protrusion member and another opening open to the exterior of the mechanical chamber, wherein the protrusion member includes a first passage forming member formed with a first passage open to the interior of the mechanism chamber through the one opening, the first passage being one part of the communication passage, and wherein the protrusion member further includes a second passage forming member formed with a second passage (52a, 152a) open to the exterior of the mechanism chamber and communicating with the first passage, the second passage being another part of the communication passage; characterised in that the first passage forming member is located on the leading end side of the protrusion member and the second passage forming member is located at a base end side of the protrusion member, wherein the first passage forming member is made from a rubber material and has a mounted section (51 A, 151A) mounted on the second passage forming member and an extending section (51B, 151B) extending from the mounted section, the extending section being formed with an opening of the first passage that opens to the interior of the mechanism chamber; and wherein the extending portion is in a constriction shape with respect to the mounted section.
A laundry treatment apparatus equipped with a thermoelectric module, the apparatus comprising: a thermoelectric element configured, based on the Peltier effect, to emit heat from one surface thereof and absorb heat on an opposite surface thereof, or to absorb heat on one surface thereof and emit heat from an opposite surface thereof; a first heat exchange unit configured to come into close contact with one surface of the thermoelectric element so as to undergo heat exchange with air upon receiving heat from the surface; a heat transfer member configured to come into close contact with the opposite surface of the thermoelectric element so as to conduct heat; and a second heat exchange unit installed on the heat transfer member, the second heat exchange unit being configured to undergo heat exchange with air upon receiving heat from the opposite surface of the thermoelectric element through the heat transfer member, wherein the first heat exchange unit and the second heat exchange unit are arranged on a same side of the heat transfer member and are arranged in a line, characterized in that: the heat transfer member is provided at an end thereof with a jagged structure (133; 233) for collection and dropping of condensed water, wherein the jagged structure (133; 233) includes protruding drop portions (134; 234) extending in a longitudinal direction of the heat transfer member. a thermoelectric element configured, based on the Peltier effect, to emit heat from one surface thereof and absorb heat on an opposite surface thereof, or to absorb heat on one surface thereof and emit heat from an opposite surface thereof; a first heat exchange unit configured to come into close contact with one surface of the thermoelectric element so as to undergo heat exchange with air upon receiving heat from the surface; a heat transfer member configured to come into close contact with the opposite surface of the thermoelectric element so as to conduct heat; and a second heat exchange unit installed on the heat transfer member, the second heat exchange unit being configured to undergo heat exchange with air upon receiving heat from the opposite surface of the thermoelectric element through the heat transfer member, wherein the first heat exchange unit and the second heat exchange unit are arranged on a same side of the heat transfer member and are arranged in a line, characterized in that: the heat transfer member is provided at an end thereof with a jagged structure (133; 233) for collection and dropping of condensed water, wherein the jagged structure (133; 233) includes protruding drop portions (134; 234) extending in a longitudinal direction of the heat transfer member. the heat transfer member is provided at an end thereof with a jagged structure (133; 233) for collection and dropping of condensed water, wherein the jagged structure (133; 233) includes protruding drop portions (134; 234) extending in a longitudinal direction of the heat transfer member.
A composition for a sliding member comprising: a binder resin, and a solid lubricant, characterized in that the composition for the sliding member further comprises an epoxy modified silicone oil having an epoxy group at both ends or at one end of a chain constituting the epoxy modified silicone oil, whereby a weight ratio between the binder resin and the epoxy modified silicone oil being in a range from 97:3 to 75:25. a binder resin, and a solid lubricant, characterized in that the composition for the sliding member further comprises an epoxy modified silicone oil having an epoxy group at both ends or at one end of a chain constituting the epoxy modified silicone oil, whereby a weight ratio between the binder resin and the epoxy modified silicone oil being in a range from 97:3 to 75:25.
A process of treating a coated article, the process comprising: providing an article having a MCrAlY coating; applying an aluminide treatment onto the MCrAlY coating to form a treated MCrAlY coating; and outwardly forming β-phase material from the MCrAlY coating into the treatment; wherein the applying is selected from the group consisting of soaking, spraying, brushing, dipping, pouring, pack cementation, vapor deposition, and combinations thereof. providing an article having a MCrAlY coating; applying an aluminide treatment onto the MCrAlY coating to form a treated MCrAlY coating; and outwardly forming β-phase material from the MCrAlY coating into the treatment;
A shaped vegetarian casing-less smoked sausage comprising: a) 30-80 wt.% water; b) 5-35 wt.% oil; c) 2-25 wt.% protein selected from algal protein, bacterial protein, dairy protein, egg protein, fungal protein, plant protein, and combinations thereof; d) 0-40 wt.% of one or more particulate ingredients selected from herbs, spices, vegetables and combinations thereof; wherein the vegetarian sausage comprises less than 5 vol.% air bodies having an equivalent spherical diameter of more than 30 microns, as determined by means of micro computed tomography. a) 30-80 wt.% water; b) 5-35 wt.% oil; c) 2-25 wt.% protein selected from algal protein, bacterial protein, dairy protein, egg protein, fungal protein, plant protein, and combinations thereof; d) 0-40 wt.% of one or more particulate ingredients selected from herbs, spices, vegetables and combinations thereof;
A method of producing ingenol-3-angelate (2-Methyl-2 -butenoic acid (1a R,2 S,5 R,5a S,6 S,8a S,9 R,10a R)-5,5a-dihydroxy-4-(hydroxymethyl)-1,1,7,9-tetramethyl-11-oxo-1a,2,5,5a,6,9,10,10a-octahydro-1H-2,8a-methanocyclopenta[a]cyclopropa[e]cyclodecen-6-yl ester) from ingenol comprising the steps of: (a) reacting one or both hydroxyl groups in positions 5 and 20 of ingenol with suitable hydroxyl protecting agents, same or different, to obtain a compound of the general formula or wherein R 1 represents hydrogen or a hydroxyl protective group and R 2 represents hydrogen or a hydroxyl protective group, with the proviso that not both R 1 and R 2 represent hydrogen, or wherein D represents a dihydroxyl protective group (b) esterifying the hydroxyl group at the 3-position of compounds or to obtain compounds of the general formula or wherein R 1, R 2 and D are as described above, and wherein step (b) comprises reacting compound or with: (i) methyl angelate, (ii) angeloyl chloride in the presence of a base, in a suitable solvent, (iii) angelic acid anhydride, or (iv) a mixed angelic acid anhydride; and (c) removing the hydroxyl protective groups R 1 or R 2, or R 1 and R 2, or D from compounds or to obtain ingenol-3-angelate. (a) reacting one or both hydroxyl groups in positions 5 and 20 of ingenol with suitable hydroxyl protecting agents, same or different, to obtain a compound of the general formula or wherein R 1 represents hydrogen or a hydroxyl protective group and R 2 represents hydrogen or a hydroxyl protective group, with the proviso that not both R 1 and R 2 represent hydrogen, or wherein D represents a dihydroxyl protective group (b) esterifying the hydroxyl group at the 3-position of compounds or to obtain compounds of the general formula or wherein R 1, R 2 and D are as described above, and wherein step (b) comprises reacting compound or with: (i) methyl angelate, (ii) angeloyl chloride in the presence of a base, in a suitable solvent, (iii) angelic acid anhydride, or (iv) a mixed angelic acid anhydride; and (i) methyl angelate, (ii) angeloyl chloride in the presence of a base, in a suitable solvent, (iii) angelic acid anhydride, or (iv) a mixed angelic acid anhydride; (c) removing the hydroxyl protective groups R 1 or R 2, or R 1 and R 2, or D from compounds or to obtain ingenol-3-angelate.
A kit comprising: (i) a bone graft material comprising resorbable collagen and resorbable calcium phosphate, wherein the bone graft material has micro-, meso-, and macroporosity; and (ii) a container of bioactive glass, wherein the bioactive glass has a particle size of less than 150 μm. (i) a bone graft material comprising resorbable collagen and resorbable calcium phosphate, wherein the bone graft material has micro-, meso-, and macroporosity; and (ii) a container of bioactive glass, wherein the bioactive glass has a particle size of less than 150 μm.
A retractable component actuator, comprising: a first portion fixable to a fixed component and comprising a first engagement feature; a second portion fixable to a retractable component and comprising a second engagement feature releasably supportable on the first engagement feature, wherein the second engagement feature is biased into supportable contact with the first engagement feature by gravity and wherein the second engagement feature is freely manually movable upwardly away from the first engagement feature; and an automated drive mechanism operably coupled to the first portion and operable to move the first engagement feature upward and downward relative to the fixed component when the first portion is fixed to the fixed component; wherein: downward movement of the second engagement feature relative to the first engagement feature is constrained by the first engagement feature; upward movement of the second engagement feature relative to the first engagement feature is unconstrained by the first engagement feature; and when the second engagement feature is supported on the first engagement feature and the first portion is fixed to the fixed component, the second engagement feature is upwardly and downwardly co-movable, relative to the fixed component, with the first engagement feature. a first portion fixable to a fixed component and comprising a first engagement feature; a second portion fixable to a retractable component and comprising a second engagement feature releasably supportable on the first engagement feature, wherein the second engagement feature is biased into supportable contact with the first engagement feature by gravity and wherein the second engagement feature is freely manually movable upwardly away from the first engagement feature; and an automated drive mechanism operably coupled to the first portion and operable to move the first engagement feature upward and downward relative to the fixed component when the first portion is fixed to the fixed component; wherein: downward movement of the second engagement feature relative to the first engagement feature is constrained by the first engagement feature; upward movement of the second engagement feature relative to the first engagement feature is unconstrained by the first engagement feature; and when the second engagement feature is supported on the first engagement feature and the first portion is fixed to the fixed component, the second engagement feature is upwardly and downwardly co-movable, relative to the fixed component, with the first engagement feature. downward movement of the second engagement feature relative to the first engagement feature is constrained by the first engagement feature; upward movement of the second engagement feature relative to the first engagement feature is unconstrained by the first engagement feature; and when the second engagement feature is supported on the first engagement feature and the first portion is fixed to the fixed component, the second engagement feature is upwardly and downwardly co-movable, relative to the fixed component, with the first engagement feature.
A non-degradable, non-immunogenic microporous hydrogel composition comprising: a collection of flowable hydrogel particles comprising a bioinert polymeric backbone, wherein the bioinert polymeric backbone comprises a synthesized 4-armed polyethylene glycol); an annealing component comprising a physiologically-stable, radically polymerizable alkene, wherein the annealing component links the flowable hydrogel particles; and a heparin compound, wherein the microporous hydrogel composition is substantially non-degradable and substantially non-immunogenic. a collection of flowable hydrogel particles comprising a bioinert polymeric backbone, wherein the bioinert polymeric backbone comprises a synthesized 4-armed polyethylene glycol); an annealing component comprising a physiologically-stable, radically polymerizable alkene, wherein the annealing component links the flowable hydrogel particles; and a heparin compound,
A system comprising a hearing aid and a Bluetooth Low Energy "BLE" device for managing communication for the hearing aid wherein the BLE device is configured to receive from and transmit data to the hearing aid through a wireless link having a plurality of wireless communication channels using BLE wireless communication technology, the system comprising: a BLE tester configured to communicate with the hearing aid via a channel of the plurality of wireless communication channels of the wireless link using the BLE wireless communication technology and to produce at least one channel metric indicative of quality of data transmission performed via the channel according to a BLE wireless test mode in response to a test command; and an analysis initiator configured to generate the test command in response to a request generated by the hearing aid that automatically determines a need to invoke the BLE wireless test mode. a BLE tester configured to communicate with the hearing aid via a channel of the plurality of wireless communication channels of the wireless link using the BLE wireless communication technology and to produce at least one channel metric indicative of quality of data transmission performed via the channel according to a BLE wireless test mode in response to a test command; and an analysis initiator configured to generate the test command in response to a request generated by the hearing aid that automatically determines a need to invoke the BLE wireless test mode.
An apparatus for production, having a machine with a load circuit which generates a leakage current and with an EMC filter, a frequency converter, a motor cable and a motor, further having a leakage current compensator with a device for detecting the leakage current and with a device for generating a compensation current which is directed in the opposite direction to the leakage current and is overlaid with the leakage current in such a manner that the leakage current is reduced, in particular substantially eliminated, wherein the device for generating the leakage current has a delay device which is configured such that the compensation current is overlaid after a time delay only when, on plugging in, all the phases of a plug of the apparatus are connected to a network. further having a leakage current compensator with a device for detecting the leakage current and with a device for generating a compensation current which is directed in the opposite direction to the leakage current and is overlaid with the leakage current in such a manner that the leakage current is reduced, in particular substantially eliminated, wherein the device for generating the leakage current has a delay device which is configured such that the compensation current is overlaid after a time delay only when, on plugging in, all the phases of a plug of the apparatus are connected to a network.
A process for treating natural gas, said process comprising contacting a first feedstream comprising liquid natural gas with a feedstock comprising methane and carbon dioxide (CO 2), wherein the CO2 present in the feedstock is present in a concentration of 30 % mole by volume or more, to form a first overhead product comprising methane and a first bottom product comprising carbon dioxide (CO 2), characterized by distilling the first bottom product to generate a second overhead product vapor comprising methane and a second bottom product liquid that is rich in carbon dioxide (CO 2), boiling the second bottom product liquid to form an inlet vapor for use in distilling the first bottom product and an outlet liquid comprising carbon dioxide (CO 2); and processing the outlet liquid to form liquid carbon dioxide (CO 2). contacting a first feedstream comprising liquid natural gas with a feedstock comprising methane and carbon dioxide (CO 2), wherein the CO2 present in the feedstock is present in a concentration of 30 % mole by volume or more, to form a first overhead product comprising methane and a first bottom product comprising carbon dioxide (CO 2), characterized by distilling the first bottom product to generate a second overhead product vapor comprising methane and a second bottom product liquid that is rich in carbon dioxide (CO 2), boiling the second bottom product liquid to form an inlet vapor for use in distilling the first bottom product and an outlet liquid comprising carbon dioxide (CO 2); and processing the outlet liquid to form liquid carbon dioxide (CO 2).