mhurhangee/ep-ind-claims huggingface dataset:
An anastomosis device comprising an expandable ring-shaped joining member for joining first and second hollow structures to form an anastomosis between said first and second hollow structures, the joining member comprising: a plurality of interconnected loops forming a body, a plurality of joining elements for joining the hollow structures connected to the body at locations where adjacent loops are interconnected to each other, and wherein the loops are configured to permit radial expansion of said body to expand said joining member from a first position to a second position having a second, larger diameter than the first position, characterized in that the interconnected loops have different sizes such that after radial expansion of the joining member, distances between adjacent joining elements vary. a plurality of interconnected loops forming a body, a plurality of joining elements for joining the hollow structures connected to the body at locations where adjacent loops are interconnected to each other, and wherein the loops are configured to permit radial expansion of said body to expand said joining member from a first position to a second position having a second, larger diameter than the first position, characterized in that the interconnected loops have different sizes such that after radial expansion of the joining member, distances between adjacent joining elements vary.
An inner surface regulation tool, comprising: a mandrel; a plug which is detachably connected to the mandrel; and a connection member which connects the plug and the mandrel by a magnetic force, wherein one of the plug and the mandrel includes a column-shaped portion (C01, C04) which extends in an axial direction of the one, and the other of the plug and the mandrel includes a joining hole (H01, H04) which extends in an axial direction of the other and into which the column-shaped portion (C01, C04) is inserted, and wherein the connection member is a permanent magnet which is attached to at least one of the column-shaped portion (C01, C04)) and the joining hole (H01, H04). a mandrel; a plug which is detachably connected to the mandrel; and a connection member which connects the plug and the mandrel by a magnetic force, wherein one of the plug and the mandrel includes a column-shaped portion (C01, C04) which extends in an axial direction of the one, and the other of the plug and the mandrel includes a joining hole (H01, H04) which extends in an axial direction of the other and into which the column-shaped portion (C01, C04) is inserted, and wherein the connection member is a permanent magnet which is attached to at least one of the column-shaped portion (C01, C04)) and the joining hole (H01, H04).
A process for handling MEMS wafers comprising the steps of: (i) attaching a first carrier substrate to a first side of a MEMS wafer, the first carrier substrate being attached via a silicone-free peel tape and a first wafer bonding tape, the peel tape contacting the first side of the MEMS wafer; (ii) performing one or more wafer processing steps on an opposite second side of the MEMS wafer; (iii) releasing the first carrier substrate from the first side of the MEMS wafer via exposure to an energy source, the energy source selectively releasing the first wafer bonding tape from the peel tape; and (iv) peeling the peel tape away from the first side of the MEMS wafer. (i) attaching a first carrier substrate to a first side of a MEMS wafer, the first carrier substrate being attached via a silicone-free peel tape and a first wafer bonding tape, the peel tape contacting the first side of the MEMS wafer; (ii) performing one or more wafer processing steps on an opposite second side of the MEMS wafer; (iii) releasing the first carrier substrate from the first side of the MEMS wafer via exposure to an energy source, the energy source selectively releasing the first wafer bonding tape from the peel tape; and (iv) peeling the peel tape away from the first side of the MEMS wafer.
A compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein: R 1 is CD 3; and R 2 is selected from CH 3, and CD 3. R 1 is CD 3; and R 2 is selected from CH 3, and CD 3.
A terminal device comprising: a reception circuitry configured and/or programmed to receive a physical downlink control channel, PDCCH; and a transmission circuitry configured and/or programmed to transmit a physical uplink shared channel, PUSCH, scheduled by the PDCCH, the PUSCH carrying uplink control information, UCI, which includes channel state information, CSI, including channel quality indicator, CQI, and hybrid automatic repeat request-acknowledgement, HARQ-ACK, information, wherein: a first quantity of coded modulation symbols for the CQI for the PUSCH with a first transmission time interval, TTI, length is given at least based on a first parameter, a second quantity of coded modulation symbols for the CQI for the PUSCH with a second different TTI length is given at least based on a second parameter, and each of the first and second parameters is determined based on matching a corresponding index value received from a base station through radio resource control, RRC, signaling against a plurality of index values. a reception circuitry configured and/or programmed to receive a physical downlink control channel, PDCCH; and a transmission circuitry configured and/or programmed to transmit a physical uplink shared channel, PUSCH, scheduled by the PDCCH, the PUSCH carrying uplink control information, UCI, which includes channel state information, CSI, including channel quality indicator, CQI, and hybrid automatic repeat request-acknowledgement, HARQ-ACK, information, wherein: a first quantity of coded modulation symbols for the CQI for the PUSCH with a first transmission time interval, TTI, length is given at least based on a first parameter, a second quantity of coded modulation symbols for the CQI for the PUSCH with a second different TTI length is given at least based on a second parameter, and each of the first and second parameters is determined based on matching a corresponding index value received from a base station through radio resource control, RRC, signaling against a plurality of index values. a first quantity of coded modulation symbols for the CQI for the PUSCH with a first transmission time interval, TTI, length is given at least based on a first parameter, a second quantity of coded modulation symbols for the CQI for the PUSCH with a second different TTI length is given at least based on a second parameter, and each of the first and second parameters is determined based on matching a corresponding index value received from a base station through radio resource control, RRC, signaling against a plurality of index values.
A measurement system for examining a sample, the measurement system comprising: an internally reflective element having a contact surface configured to contact the sample; a stage positioned adjacent to the internally reflective element, wherein at least one of the stage and the internally reflective element are configured to apply a force to the sample when the sample is positioned on the stage and the contact surface is in contact with the sample; an optical assembly comprising a light source and a light detector, wherein the optical assembly is configured to scan the sample by directing source light from the light source towards the contact surface and detecting source light optically interacting with the contact surface by the light detector; a chassis configured to support the optical assembly and the internally reflective element; and a sensor mounted to the chassis, the sensor configured to detect the force applied to the sample by the at least one of the internally reflective element and the stage; wherein the force is a sample force; characterised in that the sensor is in contact with the optical assembly such that the sample force is detected based on a deflection force that is applied to the sensor from the optical assembly as a result of the sample force applied to the sample. an internally reflective element having a contact surface configured to contact the sample; a stage positioned adjacent to the internally reflective element, wherein at least one of the stage and the internally reflective element are configured to apply a force to the sample when the sample is positioned on the stage and the contact surface is in contact with the sample; an optical assembly comprising a light source and a light detector, wherein the optical assembly is configured to scan the sample by directing source light from the light source towards the contact surface and detecting source light optically interacting with the contact surface by the light detector; a chassis configured to support the optical assembly and the internally reflective element; and a sensor mounted to the chassis, the sensor configured to detect the force applied to the sample by the at least one of the internally reflective element and the stage; wherein the force is a sample force; characterised in that the sensor is in contact with the optical assembly such that the sample force is detected based on a deflection force that is applied to the sensor from the optical assembly as a result of the sample force applied to the sample.
A gas turbine engine comprising: a flow device including an inner member and a surrounding member; the inner member having a first coefficient of thermal expansion; and the surrounding member at least partially surrounding the inner member and having a second coefficient of thermal expansion that is different from the first coefficient of thermal expansion of the inner member; the surrounding member including at least two walls that include a planar first wall and a cylindrical second wall that form a variable flow gap between an end of the second wall and an outer periphery of the first wall, wherein the inner member is oriented relative to the at least two walls (50, 54) of the surrounding member such that, based on the difference in the first and second coefficients of thermal expansion, the inner member expands relatively greater than the surrounding member or the surrounding member expands relatively greater than the inner member, according to a temperature change to correspondingly enlarge or reduce the size of the variable flow gap between the at least two walls (50, 54). a flow device including an inner member and a surrounding member; the inner member having a first coefficient of thermal expansion; and the surrounding member at least partially surrounding the inner member and having a second coefficient of thermal expansion that is different from the first coefficient of thermal expansion of the inner member; the surrounding member including at least two walls that include a planar first wall and a cylindrical second wall that form a variable flow gap between an end of the second wall and an outer periphery of the first wall, wherein the inner member is oriented relative to the at least two walls (50, 54) of the surrounding member such that, based on the difference in the first and second coefficients of thermal expansion, the inner member expands relatively greater than the surrounding member or the surrounding member expands relatively greater than the inner member, according to a temperature change to correspondingly enlarge or reduce the size of the variable flow gap between the at least two walls (50, 54).
A computer-implemented method for managing wireless connectivity, the computer-implemented method comprising: receiving at a first wireless access point a request from a client device to establish a wireless data link between the client device and the first access point device, the first access point device providing a connection to a computer network, the client device selecting the first wireless access point to establish the wireless data link; establishing the wireless data link between the client device and the first access point device on a radio frequency communication channel, the wireless data link used to transmit data packets between the client device and the first access point device; monitoring at least one parameter of the wireless data link between the client device and the first access point device; and in response to determining that the at least one parameter meets a predetermined criterion, transmitting from the first access point device a disassociate message to the client device, the disassociate message causing the client device to end the wireless data link characterized in that in response to transmitting the disassociate message to the client device, the first access point device rejecting, for a predetermined period of time, subsequent connectivity requests from the client device to re-establish the wireless data link before allowing the client device to reconnect with the first access point device. receiving at a first wireless access point a request from a client device to establish a wireless data link between the client device and the first access point device, the first access point device providing a connection to a computer network, the client device selecting the first wireless access point to establish the wireless data link; establishing the wireless data link between the client device and the first access point device on a radio frequency communication channel, the wireless data link used to transmit data packets between the client device and the first access point device; monitoring at least one parameter of the wireless data link between the client device and the first access point device; and in response to determining that the at least one parameter meets a predetermined criterion, transmitting from the first access point device a disassociate message to the client device, the disassociate message causing the client device to end the wireless data link characterized in that in response to transmitting the disassociate message to the client device, the first access point device rejecting, for a predetermined period of time, subsequent connectivity requests from the client device to re-establish the wireless data link before allowing the client device to reconnect with the first access point device.
A composition comprising oligomeric phosphonates selected from the group consisting of oligophosphonate, random co-oligo(phosphonate ester), block co-oligo(phosphonate ester), random co-oligo(phosphonate carbonate), or block co-oligo(phosphonate carbonate), wherein 60% to 100% of the total oligomeric phosphonates have two or more reactive end-groups selected from the group consisting of vinyl, vinyl ester, isopropenyl, isocyanate, and combinations thereof.
A microphone unit (1, 2, 3, 6, 7, 8) comprising: a first vibrating part for converting an inputted sound to an electrical signal on the basis of vibration of a first diaphragm; a second vibrating part for converting an inputted sound to an electrical signal on the basis of vibration of a second diaphragm; an installation part (11, 12) including an installation surface on which the first vibrating part and the second vibrating part are installed; and a lid placed over the installation surface, the lid covering the first and second vibrating parts (14, 15) and having formed therein a first sound hole and a second sound hole, wherein the installation part (11, 12) and the lid form a case, which is provided with: a first sound channel for transmitting an acoustic wave inputted from the first sound hole to one surface of the first diaphragm and to one surface of the second diaphragm; a second sound channel for transmitting an acoustic wave inputted from the second sound hole to the other surface of the second diaphragm; and a sealed space that faces the other surface of the first diaphragm, characterized in that the first and second vibrating parts (14, 15) are installed on the installation part (11, 12) with the first and second diaphragms (142, 152) parallel to the installation surface. a first vibrating part for converting an inputted sound to an electrical signal on the basis of vibration of a first diaphragm; a second vibrating part for converting an inputted sound to an electrical signal on the basis of vibration of a second diaphragm; an installation part (11, 12) including an installation surface on which the first vibrating part and the second vibrating part are installed; and a lid placed over the installation surface, the lid covering the first and second vibrating parts (14, 15) and having formed therein a first sound hole and a second sound hole, wherein the installation part (11, 12) and the lid form a case, which is provided with: a first sound channel for transmitting an acoustic wave inputted from the first sound hole to one surface of the first diaphragm and to one surface of the second diaphragm; a second sound channel for transmitting an acoustic wave inputted from the second sound hole to the other surface of the second diaphragm; and a sealed space that faces the other surface of the first diaphragm, a first sound channel for transmitting an acoustic wave inputted from the first sound hole to one surface of the first diaphragm and to one surface of the second diaphragm; a second sound channel for transmitting an acoustic wave inputted from the second sound hole to the other surface of the second diaphragm; and a sealed space that faces the other surface of the first diaphragm, characterized in that the first and second vibrating parts (14, 15) are installed on the installation part (11, 12) with the first and second diaphragms (142, 152) parallel to the installation surface.
An alkylation process comprising steps for regenerating a clay catalyst that has lost at least a portion of its catalytic activity due to use in an alkylation reaction of an aromatic compound, said process comprising: A) passing a mixture comprising one or more olefins and an aromatic amine through an acidic clay catalyst in a fixed bed reactor to yield an alkylation product; B) discontinuing passage of the one or more olefins and aromatic amine through the acidic clay catalyst; C) contacting said acidic clay catalyst with a regeneration mixture comprising from 0.5 to 10 wt% of an acid, wherein the acid is an inorganic acid, 1 to 20 wt% of water, and 70 to 98.5 wt% of an organic solvent, in an amount that is at least sufficient to fully wet the catalyst, at a temperature of from 25 to 200 °C, for from 0.5 to 36 hours, resulting in a regenerated clay catalyst, and then separating the regenerated clay catalyst from the regeneration mixture; and D) resuming passage of the one or more olefins and aromatic amine through the regenerated clay catalyst; wherein the acidic clay catalyst is a bentonite clay; and wherein the organic solvent is selected from methanol, ethanol, propanol, iso-propanol, butanol, iso-, sec- or tert-butanol, pentanol, hexanol, heptanol, octanol, or ethylhexanol. A) passing a mixture comprising one or more olefins and an aromatic amine through an acidic clay catalyst in a fixed bed reactor to yield an alkylation product; B) discontinuing passage of the one or more olefins and aromatic amine through the acidic clay catalyst; C) contacting said acidic clay catalyst with a regeneration mixture comprising from 0.5 to 10 wt% of an acid, wherein the acid is an inorganic acid, 1 to 20 wt% of water, and 70 to 98.5 wt% of an organic solvent, in an amount that is at least sufficient to fully wet the catalyst, at a temperature of from 25 to 200 °C, for from 0.5 to 36 hours, resulting in a regenerated clay catalyst, and then separating the regenerated clay catalyst from the regeneration mixture; and D) resuming passage of the one or more olefins and aromatic amine through the regenerated clay catalyst;
An apparatus for a platooning vehicle, the platooning vehicle being a member of a platoon of two or more vehicles, the apparatus comprising a communication module configured to make information available to other vehicles; and a control module configured to control the communication module, wherein the control module is further configured to determine information on an area of the platoon, and mark the area of the platoon for other vehicles using the communication module, wherein the control module is configured to provide a message with further information on the platoon using the communication module, wherein the further information comprises information on an upcoming maneuver of the platoon. a communication module configured to make information available to other vehicles; and a control module configured to control the communication module, wherein the control module is further configured to determine information on an area of the platoon, and mark the area of the platoon for other vehicles using the communication module, wherein the control module is configured to provide a message with further information on the platoon using the communication module, wherein the further information comprises information on an upcoming maneuver of the platoon. determine information on an area of the platoon, and mark the area of the platoon for other vehicles using the communication module, wherein the control module is configured to provide a message with further information on the platoon using the communication module, wherein the further information comprises information on an upcoming maneuver of the platoon.
- Washing cabin for two-wheeled vehicles, comprising: - an interior enclosure that divides the interior space into a washing chamber and a machinery cabinet; and - a door for accessing the washing chamber; - wherein the machinery cabinet comprises a high pressure hydraulic circuit and the washing chamber comprises several washing turbines; - the washing cabin being characterised in that: the washing turbines comprise a fixed central body (6.1) connected at one end to the high-pressure hydraulic circuit and, on the other, to a head (6.2) that rotates with the passage of water, which in turn comprises at least two tubular arms (6.3) ending in two water impeller nozzles (6.4), wherein the axis passing through the center of the impeller nozzles (6.4) forms with the axis of rotation of the head (6.2) an angle α in the range between 2° and 20°; and - wherein each of the tubular arms (6.3) is formed by a first section attached to the head (6.2) and a second section ending at the impeller nozzle (6.4), wherein both sections are at an angle to each other; - wherein the angle formed by the first and second section of the tubular arms (6.3) is greater than 90°. - an interior enclosure that divides the interior space into a washing chamber and a machinery cabinet; and - a door for accessing the washing chamber; - wherein the machinery cabinet comprises a high pressure hydraulic circuit and the washing chamber comprises several washing turbines; - the washing cabin being characterised in that: the washing turbines comprise a fixed central body (6.1) connected at one end to the high-pressure hydraulic circuit and, on the other, to a head (6.2) that rotates with the passage of water, which in turn comprises at least two tubular arms (6.3) ending in two water impeller nozzles (6.4), wherein the axis passing through the center of the impeller nozzles (6.4) forms with the axis of rotation of the head (6.2) an angle α in the range between 2° and 20°; and - wherein each of the tubular arms (6.3) is formed by a first section attached to the head (6.2) and a second section ending at the impeller nozzle (6.4), wherein both sections are at an angle to each other; - wherein the angle formed by the first and second section of the tubular arms (6.3) is greater than 90°. - wherein each of the tubular arms (6.3) is formed by a first section attached to the head (6.2) and a second section ending at the impeller nozzle (6.4), wherein both sections are at an angle to each other; - wherein the angle formed by the first and second section of the tubular arms (6.3) is greater than 90°.