mhurhangee/ep-ind-claims huggingface dataset:
A polymerization process for making polypropylene or propylene copolymer (C 2 to C 8) comprising: polymerizing propylene, optionally with one or more comonomers, in a gas-phase reactor having a polymer bed with a bulk density greater than 128 kg/m 3, in the presence of a mixed electron donor system, wherein: (a) the mixed electron donor system comprises at least a first external electron donor and a second external electron donor, and wherein the first external electron donor is a carboxylate compound; and (b) the gas-phase reactor is a mechanically agitated stirred polymer bed gas-phase polymerization reactor having a superficial gas velocity which is less than 10 times of the minimum fluidization velocity and a solid holdup larger than 0.17, both measured as referenced in the description. (a) the mixed electron donor system comprises at least a first external electron donor and a second external electron donor, and wherein the first external electron donor is a carboxylate compound; and (b) the gas-phase reactor is a mechanically agitated stirred polymer bed gas-phase polymerization reactor having a superficial gas velocity which is less than 10 times of the minimum fluidization velocity and a solid holdup larger than 0.17, both measured as referenced in the description.
A composition comprising the phytocannabinoids cannabidivarin (CBDV) and cannabidiol, absent of the cannabinoid tetrahydrocannabivarin (THCV), for use in the treatment of epilepsy.
A plasma generator, comprising: at least one positive ion releaser array comprising a plurality of positive ion releasers for releasing positive ions, and at least one negative ion releaser array comprising a plurality of negative ion releasers for releasing negative ions characterized in that the plasma generator comprises a housing, wherein the positive ion releaser array and the negative ion releaser array are arranged linearly on an upper surface of the housing, along two sides of the upper surface of the housing, respectively such that the positive ion releaser and the negative ion releaser array are parallel to each other and spaced at a certain distance, wherein the plasma generator comprises recesses in the upper surface of the housing, wherein the positive ion releaser array comprising the plurality of positive ion releasers and the negative ion releaser array comprising the plurality of negative ion releasers are arranged in the recesses respectively and wherein the plasma generator comprises a power supply or power interface provided in the housing, wherein the power supply or power interface comprises a positive terminal connected to the positive ion releaser array, and a negative terminal connected to the negative ion releaser array. at least one positive ion releaser array comprising a plurality of positive ion releasers for releasing positive ions, and at least one negative ion releaser array comprising a plurality of negative ion releasers for releasing negative ions characterized in that the plasma generator comprises a housing, wherein the positive ion releaser array and the negative ion releaser array are arranged linearly on an upper surface of the housing, along two sides of the upper surface of the housing, respectively such that the positive ion releaser and the negative ion releaser array are parallel to each other and spaced at a certain distance, wherein the plasma generator comprises recesses in the upper surface of the housing, wherein the positive ion releaser array comprising the plurality of positive ion releasers and the negative ion releaser array comprising the plurality of negative ion releasers are arranged in the recesses respectively and wherein the plasma generator comprises a power supply or power interface provided in the housing, wherein the power supply or power interface comprises a positive terminal connected to the positive ion releaser array, and a negative terminal connected to the negative ion releaser array.
A relative humidity sensor, comprising: a dielectric substrate (2; 22); a first electrode and a second electrode (4, 8; 24, 26) disposed above the dielectric substrate (2; 22); and a humidity sensitive layer (6; 28) disposed above at least one of the first electrode and the second electrode (4, 8; 24, 26), the humidity sensitive layer (6; 28) comprising a composition comprising cellulose acetate butyrate and a hydrophobic filler; wherein the humidity sensitive layer (6; 28) comprises about 5 to about 10 weight percent hydrophobic filler based on the total weight of the humidity sensitive layer (6; 28). a dielectric substrate (2; 22); a first electrode and a second electrode (4, 8; 24, 26) disposed above the dielectric substrate (2; 22); and a humidity sensitive layer (6; 28) disposed above at least one of the first electrode and the second electrode (4, 8; 24, 26), the humidity sensitive layer (6; 28) comprising a composition comprising cellulose acetate butyrate and a hydrophobic filler; wherein the humidity sensitive layer (6; 28) comprises about 5 to about 10 weight percent hydrophobic filler based on the total weight of the humidity sensitive layer (6; 28).
An easy-fit heat screening device for connecting a cooling pipe and a through-hole formed in a nozzle support ring of a gas turbine, of the type comprising a tubular structure which has an external diameter generally smaller than a diameter of said through-hole and into which said cooling pipe extends, characterized in that said tubular structure has at the top a shaped annular end which is shaped for insertion by means of interference into an annular groove formed in the inner wall of said through-hole, said groove being formed in an upper zone of said through-hole, said groove being defined at the bottom by a first flat surface and at the top by a second surface, the second surface having an inclination along a line directed towards an outer extension of said first flat surface.
A channel substrate having a channel (12; 32; 42; 52) provided therein, an upper face side, and a lower face side, the channel substrate (1a; 1b; 3; 4a; 4b; 4c; a; 5b) extending in a length direction, a width direction and a thickness direction which are orthogonal to each other, comprising: a plurality of detection portions (11a, 11b; 11c, 11d; 11e, 11f, 11g; 31a, 31b; 41a, 41b; 51a, 51b) configured to detect a specimen in the channel (12; 32; 42; 52) using optical means; an introducing portion (13; 33a, 33b, 33c; 43; 53) configured to introduce the specimen into the channel (12; 32; 42; 52); and a discharging portion (14; 34; 44; 54) configured to discharge the specimen from the channel (12; 32; 42; 52); wherein the plurality of detection portions are provided between the introducing portion and the discharging portion along the channel characterized in that the plurality of detection portions (11a, 11b; 11c, 11d; 11e, 11f, 11g; 31a, 31b; 41a, 41b; 51a, 51b) have, on the upper face side or the lower face side of the channel substrate, detection portion surfaces (15a, 15b; 15c, 15d; 15e, 15f, 15g; 35a, 35b; 45a, 45b; 55a, 55b) extending in a plane being parallel to the length and width directions (L, W), which have distances in the thickness direction different from each other to the channel (12; 32; 42; 52) and distances in the thickness direction different from each other to the respective corresponding opposite lower face side or upper face side of the channel substrate (1a; 1b; 3; 4a; 4b; 4c; a; 5b). a plurality of detection portions (11a, 11b; 11c, 11d; 11e, 11f, 11g; 31a, 31b; 41a, 41b; 51a, 51b) configured to detect a specimen in the channel (12; 32; 42; 52) using optical means; an introducing portion (13; 33a, 33b, 33c; 43; 53) configured to introduce the specimen into the channel (12; 32; 42; 52); and a discharging portion (14; 34; 44; 54) configured to discharge the specimen from the channel (12; 32; 42; 52); wherein the plurality of detection portions are provided between the introducing portion and the discharging portion along the channel characterized in that the plurality of detection portions (11a, 11b; 11c, 11d; 11e, 11f, 11g; 31a, 31b; 41a, 41b; 51a, 51b) have, on the upper face side or the lower face side of the channel substrate, detection portion surfaces (15a, 15b; 15c, 15d; 15e, 15f, 15g; 35a, 35b; 45a, 45b; 55a, 55b) extending in a plane being parallel to the length and width directions (L, W), which have distances in the thickness direction different from each other to the channel (12; 32; 42; 52) and distances in the thickness direction different from each other to the respective corresponding opposite lower face side or upper face side of the channel substrate (1a; 1b; 3; 4a; 4b; 4c; a; 5b).
Aerosol-generating device comprising: a cavity for receiving an aerosol-generating article containing an aerosol-forming substrate; and a resilient sealing element having a ring shape, wherein the resilient sealing element is arranged to be surrounding a downstream end of the cavity, wherein the resilient sealing element is configured to abut the aerosol-generating article when the aerosol-generating article is received within the cavity, wherein the resilient sealing element comprises at least two resilient sealing elements, wherein the resilient sealing elements are flexible and ring-shaped, and wherein the at least two flexible ring-shaped resilient sealing elements are arranged axially parallel to the longitudinal axis of the aerosol-generating device and inverted, wherein one resilient sealing element is funnel-shaped with the end face with the smaller diameter being oriented upstream, while the other sealing element is funnel-shaped with the end face with the larger diameter being oriented upstream. a cavity for receiving an aerosol-generating article containing an aerosol-forming substrate; and a resilient sealing element having a ring shape, wherein the resilient sealing element is arranged to be surrounding a downstream end of the cavity, wherein the resilient sealing element is configured to abut the aerosol-generating article when the aerosol-generating article is received within the cavity, wherein the resilient sealing element comprises at least two resilient sealing elements, wherein the resilient sealing elements are flexible and ring-shaped, and wherein the at least two flexible ring-shaped resilient sealing elements are arranged axially parallel to the longitudinal axis of the aerosol-generating device and inverted, wherein one resilient sealing element is funnel-shaped with the end face with the smaller diameter being oriented upstream, while the other sealing element is funnel-shaped with the end face with the larger diameter being oriented upstream.
A method comprising: receiving, by an access point, AP, of a wireless local area network, WLAN, prior to association of a wireless device with the AP, a request from the wireless device, the request requesting any Extensible Authentication Protocol, EAP, method supported by a public land mobile network, PLMN, accessible via the AP; and transmitting by the AP, prior to association of the wireless device with the AP, a first identifier indicative of a first EAP method supported by the PLMN. receiving, by an access point, AP, of a wireless local area network, WLAN, prior to association of a wireless device with the AP, a request from the wireless device, the request requesting any Extensible Authentication Protocol, EAP, method supported by a public land mobile network, PLMN, accessible via the AP; and transmitting by the AP, prior to association of the wireless device with the AP, a first identifier indicative of a first EAP method supported by the PLMN.
Thermoplastic moulding compositions comprising from 10 to 99.85% by weight of a thermoplastic polymer or a combination of different thermoplastic polymers, from 0.05 to 10% by weight of iron oxalate, and from 0.1 to 70% by weight of other ingredients, where the total of all of the percentages by weight is always 100% by weight. from 10 to 99.85% by weight of a thermoplastic polymer or a combination of different thermoplastic polymers, from 0.05 to 10% by weight of iron oxalate, and from 0.1 to 70% by weight of other ingredients, where the total of all of the percentages by weight is always 100% by weight.
A probe deployment mechanism for a coordinate measuring machine comprising: an actuator body arranged for connection to a measuring machine; a probe being displaceable with respect to the actuator body between extended and retracted positions; and a locator coupling that is engageable in the extended position of the probe for constraining movement of the probe with respect to the actuator body; characterized by a drive (28, 24, 130, 140) releasably coupled to the probe for displacing the probe between the extended and retracted positions so that in the extended position, the drive is kinetically isolated from the probe; wherein the drive (28, 24, 130, 140) is arranged to be driven in a first direction through a first distance that permits the probe to be displaced from the retracted position to the extended position at which the locator coupling is engaged to prevent further displacement of the probe in the first direction, and the drive (28, 24, 130, 140) is overdriven in the first direction at the extended position of the probe through a second distance that would otherwise permit further displacement of probe in the first direction for releasing the drive (28, 24, 130, 140) from the probe. an actuator body arranged for connection to a measuring machine; a probe being displaceable with respect to the actuator body between extended and retracted positions; and a locator coupling that is engageable in the extended position of the probe for constraining movement of the probe with respect to the actuator body; characterized by a drive (28, 24, 130, 140) releasably coupled to the probe for displacing the probe between the extended and retracted positions so that in the extended position, the drive is kinetically isolated from the probe; wherein the drive (28, 24, 130, 140) is arranged to be driven in a first direction through a first distance that permits the probe to be displaced from the retracted position to the extended position at which the locator coupling is engaged to prevent further displacement of the probe in the first direction, and the drive (28, 24, 130, 140) is overdriven in the first direction at the extended position of the probe through a second distance that would otherwise permit further displacement of probe in the first direction for releasing the drive (28, 24, 130, 140) from the probe.
An adjustable earphone, comprising: a housing; a sound-producing transducer positioned at least partially in said housing; an ear canal portion adjacent to the housing, the ear canal portion comprising a resilient cushion and having a first shape; and an adjustment assembly operably coupled to the housing such that actuation of the adjustment assembly causes the ear canal portion to have at least a second shape without external force being applied to or removed from the ear canal portion, wherein at least part of the adjustment assembly is accessible to and operable by a user when the ear canal portion is inserted in the user's ear canal. a housing; a sound-producing transducer positioned at least partially in said housing; an ear canal portion adjacent to the housing, the ear canal portion comprising a resilient cushion and having a first shape; and an adjustment assembly operably coupled to the housing such that actuation of the adjustment assembly causes the ear canal portion to have at least a second shape without external force being applied to or removed from the ear canal portion, wherein at least part of the adjustment assembly is accessible to and operable by a user when the ear canal portion is inserted in the user's ear canal.
A method of wireless communication comprising: providing a system of peer communication devices (12,14,16,18) configured for sending and receiving signals wirelessly; the peer communication devices (12,14,16,18) following a first channel succession defining a number of communications channels to which the communication devices (12,14,16,18) are tuned at particular times; a first peer communication device generating a request to send data to a second peer communication device using a first channel in the first channel succession; the second peer communication device receiving the request to send data from the first peer communication device and generating a clear to send data message to the first peer communication device using the first channel; the first and second peer communication devices (12,14) then following a second channel succession to perform data transfer between the first peer communication device and the second peer communication device; and when a new device is added to the system, the new device enters into a discovery mode wherein the new device learns the system timing and the state of the first channel succession, wherein the step of the new device entering into a discovery mode includes the new device following a third channel succession, the third channel succession changing channels more quickly than the first or second channel successions. providing a system of peer communication devices (12,14,16,18) configured for sending and receiving signals wirelessly;
A method for operating a heating system with a heat pump which has an evaporator and a condenser, and with a low-temperature heating circuit which has a feed and a return, and with a hot water tank, wherein, when hot water is demanded for the hot water tank, all of the hot water generated by the heat pump is conveyed to the hot water tank, and the slightly cooled water flowing out of the hot water tank is supplied to the feed of the low-temperature heating circuit, characterised in that when only the low-temperature heating circuit is in operation, the heat pump provides a larger quantity of water at a low temperature compared to the simultaneous water demand from the hot water tank, and in that when hot water is demanded for the hot water tank, part of the water in the return of the low-temperature heating circuit is conveyed back to the heat pump and part into the feed of the low-temperature heating circuit. that when only the low-temperature heating circuit is in operation, the heat pump provides a larger quantity of water at a low temperature compared to the simultaneous water demand from the hot water tank, and in that when hot water is demanded for the hot water tank, part of the water in the return of the low-temperature heating circuit is conveyed back to the heat pump and part into the feed of the low-temperature heating circuit.
An array substrate, comprising: a substrate (10, 100); a detection circuit and at least one metal layer not overlapping with the detection circuit in a direction perpendicular to the substrate (10, 100), both located on the substrate (10, 100); and a protective layer covering the metal layer, wherein the array substrate further comprises a plurality of input and output terminals (310, 320) formed on the substrate (10, 100) and the protective layer exposes the plurality of input and output terminals (310, 320), the detection circuit is further arranged between the plurality of input terminals and the plurality of output terminals in a plane view,, characterized in that: the detection circuit and the plurality of input and output terminals (310, 320) form a bonding area for bonding a driver chip, the detection circuit contains a plurality of transistors connected with one another, connected to a display area of the substrate (10, 100) via fan-out wire, and configured for detecting a circuit of the array substrate before bonding the driver chip, and an area exposed by the protective layer is equal to the bonding area or greater than the bonding area. a substrate (10, 100); a detection circuit and at least one metal layer not overlapping with the detection circuit in a direction perpendicular to the substrate (10, 100), both located on the substrate (10, 100); and a protective layer covering the metal layer, wherein the array substrate further comprises a plurality of input and output terminals (310, 320) formed on the substrate (10, 100) and the protective layer exposes the plurality of input and output terminals (310, 320), the detection circuit is further arranged between the plurality of input terminals and the plurality of output terminals in a plane view,, characterized in that: the detection circuit and the plurality of input and output terminals (310, 320) form a bonding area for bonding a driver chip, the detection circuit contains a plurality of transistors connected with one another, connected to a display area of the substrate (10, 100) via fan-out wire, and configured for detecting a circuit of the array substrate before bonding the driver chip, and an area exposed by the protective layer is equal to the bonding area or greater than the bonding area.
A cycloidal marine propulsion unit comprising: a hollow rotary casing having a central axis, said rotary casing defining a central inner space with an opening at an axial end thereof; a mounting body for supporting the rotary casing on a hull of a marine vessel such that the rotary casing is rotatable about said central axis with respect to the hull, and such that the opening of the rotary casing is positioned within, and opens towards the hull, when in use; a rotating arrangement for rotating said hollow rotary casing; a plurality of blades extending axially from the rotary casing away from the hull, when in use, for rotation with the rotary casing about the central axis, wherein each blade is mounted for pivotal movement with respect to the rotary casing, about respective blade axes, wherein the rotating arrangement is configured to rotate the rotary casing by a circumference thereof, said rotating arrangement comprising a power transmission engaging the outer circumference of the hollow rotary casing, and wherein a blade shaft portion of each blade is at least partly received within the central inner space so as to attach said blade to the rotary casing, wherein each blade is equipped with a separate respective blade actuator for actuating said pivotal movement, wherein said blade actuator is arranged within the central inner space of the rotary casing, wherein each blade actuator is an electric motor operationally coupled to a separate respective power converter for driving said blade actuator and wherein the opening is dimensioned to allow entrance for maintenance personnel. a hollow rotary casing having a central axis, said rotary casing defining a central inner space with an opening at an axial end thereof; a mounting body for supporting the rotary casing on a hull of a marine vessel such that the rotary casing is rotatable about said central axis with respect to the hull, and such that the opening of the rotary casing is positioned within, and opens towards the hull, when in use; a rotating arrangement for rotating said hollow rotary casing; a plurality of blades extending axially from the rotary casing away from the hull, when in use, for rotation with the rotary casing about the central axis, wherein each blade is mounted for pivotal movement with respect to the rotary casing, about respective blade axes, wherein the rotating arrangement is configured to rotate the rotary casing by a circumference thereof, said rotating arrangement comprising a power transmission engaging the outer circumference of the hollow rotary casing, and wherein a blade shaft portion of each blade is at least partly received within the central inner space so as to attach said blade to the rotary casing, wherein each blade is equipped with a separate respective blade actuator for actuating said pivotal movement, wherein said blade actuator is arranged within the central inner space of the rotary casing, wherein each blade actuator is an electric motor operationally coupled to a separate respective power converter for driving said blade actuator and wherein the opening is dimensioned to allow entrance for maintenance personnel.