mhurhangee/patent-ind-claim-en huggingface dataset:
A polyphenylene ether comprising a repeating unit derived from a phenol of the following formula , a repeating unit derived from a phenol of the following formula , and a structural unit derived from a phenol of the following formula : wherein in the formula , each R 11 is independently an optionally substituted saturated hydrocarbon group having a carbon number of 1 to 6, an optionally substituted aryl group having a carbon number of 6 to 12, or a halogen atom, and each R 12 is independently a hydrogen atom, an optionally substituted hydrocarbon group having a carbon number of 1 to 6, an optionally substituted aryl group having a carbon number of 6 to 12, or a halogen atom: wherein in the formula , each R 22 is independently a hydrogen atom, an optionally substituted saturated or unsaturated hydrocarbon group having a carbon number of 1 to 20, an optionally substituted aryl group having a carbon number of 6 to 12, or a halogen atom, two R 22 cannot be both hydrogen atoms, and R 21 is a partial structure represented by the following formula : wherein in the formula , X is any a -valent linking group, a is an integer from 2 to 6, R 3 is one of a linear alkyl group having a carbon number of 1 to 8 and a partial structure represented by the following formula , and is bonded to the carbon atom of at least one of Position 2 or Position 6 when the position of the carbon atom of the benzene ring to which -O- is bonded is designated as Position 1, and k is each independently an integer from 1 to 4: wherein in the formula , R 41 is each independently an optionally substituted linear alkyl group having a carbon number of 1 to 8, or is a cyclic alkyl structure having a carbon number of 1 to 8 to which two R 41 are bonded, each R 42 is independently an optionally substituted alkylene group having a carbon number of 1 to 8, b is each independently 0 or 1, R 43 is one of a hydrogen atom, an optionally substituted alkyl group having a carbon number of 1 to 8, or an optionally substituted phenyl group, and the partial structure represented by the formula , which is R 21 in the formula , and the partial structure represented by the formula in R 3 in the formula may be the same or different.
A machine for making filters for smoking articles, comprising at least two forming beams placed side by side, each extending along a longitudinal axis and having an internal channel adapted to form a stream of tow, wherein each forming beam is associated with a respective porous conveyor element configured to slide inside the respective channel and to carry the tow along a feed path parallel to the longitudinal axis, the conveyor element being adapted to comply with the shape of the transverse cross section of the internal channel and being at least partly wrapped around the tow; and wherein each forming beam, has a succession of treatment stations located along the feed path of the respective forming beam and comprising at least one nozzle configured to blow a flow of steam into the internal channel of the respective forming beam , wherein each forming beam comprises conditioning means configured to vary at least one parameter of the steam flow; - a control and drive unit connected to each forming beam and configured to enable respective conditioning means associated with a forming beam independently of the conditioning means associated with at least one other forming beam in such a way as to vary the at least one parameter of the steam flow. - a control and drive unit connected to each forming beam and configured to enable respective conditioning means associated with a forming beam independently of the conditioning means associated with at least one other forming beam in such a way as to vary the at least one parameter of the steam flow.
A method of operating a repeater within a wireless communications system , comprising: configuring a beacon signal that identifies the repeater to one or more other repeaters ; transmitting the configured beacon signal at a given transmission power level to the one or more other repeaters , wherein said one or more other repeaters reduce interference associated with other transmissions from the repeater based on the configured beacon signal, wherein the configured beacon signal is not part of a donor data signal that the repeater is responsible for repeating and is not transmitted with the retransmitted donor data signal and wherein the given transmission power level is less than a transmission power level at which signals are repeated by the repeater in an uplink or a downlink direction. configuring a beacon signal that identifies the repeater to one or more other repeaters ; transmitting the configured beacon signal at a given transmission power level to the one or more other repeaters , wherein said one or more other repeaters reduce interference associated with other transmissions from the repeater based on the configured beacon signal, wherein the configured beacon signal is not part of a donor data signal that the repeater is responsible for repeating and is not transmitted with the retransmitted donor data signal and wherein the given transmission power level is less than a transmission power level at which signals are repeated by the repeater in an uplink or a downlink direction.
A method of communicating information between a plurality of medical devices in a medical device system, wherein at least one of the medical devices is an implantable medical device for implantation in a patient, comprises: communicating information between the first implantable medical device and the second medical device via conducted communication using communication pulses having a first energy level; performing a capture threshold test to identify a capture threshold for the communication pulses; changing the energy level of the communication pulses from the first energy level to a second energy level, the second energy level based on the capture threshold identified during the capture threshold test; and communicating information between the first implantable medical device and the second medical device via conducted communication using communication pulses having the second energy level. communicating information between the first implantable medical device and the second medical device via conducted communication using communication pulses having a first energy level; performing a capture threshold test to identify a capture threshold for the communication pulses; changing the energy level of the communication pulses from the first energy level to a second energy level, the second energy level based on the capture threshold identified during the capture threshold test; and communicating information between the first implantable medical device and the second medical device via conducted communication using communication pulses having the second energy level.
A bending machine with a bending information display device , wherein the bending machine has a machine frame and longitudinally extended machine table fixed in place, and a longitudinally extended press beam , which press beam is guided in the machine frame and held by a driving means , so as to be movable relative to the latter, and wherein the longitudinal extension and the direction of movement of the press beam define a working plane , and furthermore, an insertion plane is defined essentially normal to the working plane and by an upper flat side of the machine table and/or of a lower tool arranged on it, and wherein the machine frame further has two side parts , which are spaced apart from one another in the direction of the longitudinal extension of the machine table and the press beam by a machine width , and wherein the working plane establishes a front working and manipulation space and a rear machine space , which is delimited, in particular, closed off, from the former, characterized in that o a projector is arranged in the rear machine space and above the insertion plane , which projector has a beam path directed away from the insertion plane , in particular a beam path directed upward, and o that a reflector having a first reflective surface is arranged in the working and manipulation space , which first reflective surface is arranged so as to be pivoted by an angle relative to the horizontal, so that a beam impacting it from the beam path of the projector departs from the first reflective surface as a departing light beam of a beam path of the reflector in the direction of the insertion plane. o a projector is arranged in the rear machine space and above the insertion plane , which projector has a beam path directed away from the insertion plane , in particular a beam path directed upward, and o that a reflector having a first reflective surface is arranged in the working and manipulation space , which first reflective surface is arranged so as to be pivoted by an angle relative to the horizontal, so that a beam impacting it from the beam path of the projector departs from the first reflective surface as a departing light beam of a beam path of the reflector in the direction of the insertion plane.
A system for determining airspeed and/or altitude of an aircraft, the system comprising: one or more acoustic transducers (14A-D) positioned along an exterior surface of the aircraft, each of the one or more acoustic transducers being configured to detect acoustic waves caused by airflow relative to the exterior surface, the acoustic waves detected indicative of an airstream condition proximate the acoustic transducer; and a processor configured to determine airspeed and/or altitude of the aircraft based, at least in part, on the acoustic waves detected; wherein the processor is further configured to receive a signal indicative of airspeed from an airspeed sensor in communication with the processor, and to determine altitude based on the acoustic waves detected and on the airspeed indicated by the signal received; and/or wherein the processor is further configured to receive a signal indicative of altitude from an altitude sensor in communication with the processor, and to determine airspeed based on the acoustic waves detected and the altitude indicated by the signal received. one or more acoustic transducers (14A-D) positioned along an exterior surface of the aircraft, each of the one or more acoustic transducers being configured to detect acoustic waves caused by airflow relative to the exterior surface, the acoustic waves detected indicative of an airstream condition proximate the acoustic transducer; and a processor configured to determine airspeed and/or altitude of the aircraft based, at least in part, on the acoustic waves detected; wherein the processor is further configured to receive a signal indicative of airspeed from an airspeed sensor in communication with the processor, and to determine altitude based on the acoustic waves detected and on the airspeed indicated by the signal received; and/or wherein the processor is further configured to receive a signal indicative of altitude from an altitude sensor in communication with the processor, and to determine airspeed based on the acoustic waves detected and the altitude indicated by the signal received.
A method for a mobile robot located on a pedestrian pathway to avoid collisions when crossing a road adjacent to the pedestrian pathway , the method comprising: the mobile robot approaching the road from the pedestrian pathway ; the mobile robot sensing road conditions; the mobile robot initiating road crossing, if the road conditions are deemed suitable for crossing; while crossing the road , the mobile robot sensing a change in the road conditions indicating at least one hazardous moving object; and the mobile robot initiating a collision avoidance maneuver, in response to determining that at least one hazardous moving object is present; wherein the collision avoidance maneuver comprises: determining whether or not an object is directly behind the mobile robot ; and applying reverse acceleration, only if no object is sensed directly behind the mobile robot . the mobile robot approaching the road from the pedestrian pathway ; the mobile robot sensing road conditions; the mobile robot initiating road crossing, if the road conditions are deemed suitable for crossing; while crossing the road , the mobile robot sensing a change in the road conditions indicating at least one hazardous moving object; and the mobile robot initiating a collision avoidance maneuver, in response to determining that at least one hazardous moving object is present; determining whether or not an object is directly behind the mobile robot ; and applying reverse acceleration, only if no object is sensed directly behind the mobile robot .
Sealing device for sealing a window frame in the lower region of a wall opening, wherein the sealing device comprises first, second and third sealing surfaces which are configured to be sealingly positioned opposite to a lower side , an outer side and a longitudinal edge side of the window frame with the interposition of at least one seal , wherein the sealing device comprises at least one support section which comprises the first sealing surface and is configured to support the window frame on its lower side , wherein the sealing device comprises at least one first lateral section which comprises the second sealing surface and adjoins the outside of the support section and comprises at least one second lateral section which comprises the third sealing surface and laterally adjoins the support section , and wherein the first, second and third sealing surface meet in a common vertex, characterised in that, in plan view, the first sealing surface has an L-shape, the lower leg of the L-shape faces the second sealing surface , and the third sealing surface is downwardly adjacent to the lower leg of the L-shape.
A continuous melt polycarbonate polymerization process, comprising: melt polymerizing a carbonate compound and dihydroxy compound in the presence of a catalyst composition to form a polymerized polycarbonate; adding a viscosity reducing agent to polymerized polycarbonate upstream of a first melt filter to form an adjusted polycarbonate; replacing the first melt filter with a replacement melt filter; introducing the adjusted polycarbonate to the replacement melt filter; and reducing the addition rate of the viscosity reducing agent until the addition rate is 0 mol/hr. melt polymerizing a carbonate compound and dihydroxy compound in the presence of a catalyst composition to form a polymerized polycarbonate; adding a viscosity reducing agent to polymerized polycarbonate upstream of a first melt filter to form an adjusted polycarbonate; replacing the first melt filter with a replacement melt filter; introducing the adjusted polycarbonate to the replacement melt filter; and reducing the addition rate of the viscosity reducing agent until the addition rate is 0 mol/hr.
A method performed by a group management server in a communication system, the method comprising: receiving , from a Vertical Application Layer, VAL, server , a request message for configuring a group, the request message including an identifier, ID, of the group and a description of the group; creating the group based on the request message for configuring the group; transmitting , to at least one group management client (150a-150n), a group announcement message associated with the group, the group announcement message including the ID of the group and the description of the group; receiving , from the at least one group management client, a group registration request message including the ID of the group and information that indicates interest to receive a notification for a newly registered VAL UE ID; configuring the at least one group management client as member of the group; transmitting , to the at least one group management client, a group registration response message as a response to the group registration request message, the group registration response message including information for a subscription result associated with the at least one group management client, the subscription result indicating whether subscription to receive the notification for a newly registered VAL UE ID is successful or not; transmitting , to the VAL server, a response message for configuring the group; and transmitting an identity list notification message to the VAL server and a group management client identified based on the subscription result receiving , from a Vertical Application Layer, VAL, server , a request message for configuring a group, the request message including an identifier, ID, of the group and a description of the group; creating the group based on the request message for configuring the group; transmitting , to at least one group management client (150a-150n), a group announcement message associated with the group, the group announcement message including the ID of the group and the description of the group; receiving , from the at least one group management client, a group registration request message including the ID of the group and information that indicates interest to receive a notification for a newly registered VAL UE ID; configuring the at least one group management client as member of the group; transmitting , to the at least one group management client, a group registration response message as a response to the group registration request message, the group registration response message including information for a subscription result associated with the at least one group management client, the subscription result indicating whether subscription to receive the notification for a newly registered VAL UE ID is successful or not; transmitting , to the VAL server, a response message for configuring the group; and transmitting an identity list notification message to the VAL server and a group management client identified based on the subscription result
A mould insert part for injection moulding, comprising - a main body having a first surface and an opposed second surface , the first surface defining a plane (P) - a mould core extending from the first surface of the main body of the mould insert part ; - a gas inlet port connectable to a supply of pressurized gas; - two or more gas outlet ports arranged to direct a gas flow towards an uncovered surface of an injection moulded item located on the mould core , after the mould core and the mould cavity have been separated from each other; and - a gas conduit system extending inside the main body of the mould insert part , and connecting the two or more gas outlet ports with the gas inlet port , common to the two or more gas outlet ports , wherein each of the two or more gas outlet ports are arranged at least partially through the first surface , and wherein the gas conduit system is provided in the main body below said first surface . - a main body having a first surface and an opposed second surface , the first surface defining a plane (P) - a mould core extending from the first surface of the main body of the mould insert part ; - a gas inlet port connectable to a supply of pressurized gas; - two or more gas outlet ports arranged to direct a gas flow towards an uncovered surface of an injection moulded item located on the mould core , after the mould core and the mould cavity have been separated from each other; and - a gas conduit system extending inside the main body of the mould insert part , and connecting the two or more gas outlet ports with the gas inlet port , common to the two or more gas outlet ports ,
A method of manufacturing a pouch-shaped battery cell, the method comprising: (a) injecting an electrolytic solution into a pouch-shaped battery case, in which an electrode assembly is mounted; (b) charging and discharging the pouch-shaped battery cell having the electrolytic solution injected thereinto (a primary formation step); (c) placing the pouch-shaped battery cell in a jig configured to fix and press the pouch-shaped battery cell; and (d) charging and discharging the pouch-shaped battery cell in a state in which pressure is applied to the jig (a jig grading step), wherein the electrode assembly is constituted by a negative electrode comprising a silicon-based negative electrode active material. (a) injecting an electrolytic solution into a pouch-shaped battery case, in which an electrode assembly is mounted; (b) charging and discharging the pouch-shaped battery cell having the electrolytic solution injected thereinto (a primary formation step); (c) placing the pouch-shaped battery cell in a jig configured to fix and press the pouch-shaped battery cell; and (d) charging and discharging the pouch-shaped battery cell in a state in which pressure is applied to the jig (a jig grading step),
A method for robust wireless radio transmission, the method being performed by a network node , the method comprising: acquiring (S102) data to be transmitted on a wireless radio link from the network node to a remote radio unit ; separating (S104) said data into a radio access technology, RAT, payload part and a management data part ; characterized in that the method comprises acquiring (S106) channel condition values for said wireless radio link; dynamically allocating (S108) resources between said RAT payload part and said management data part according to said channel condition values, wherein the resource allocation is performed so as to prioritize transmission of the management data part over the RAT payload part , and/or wherein the resource allocation is performed such that the management data part is guaranteed transport over said wireless radio link; and transmitting (S112) said data over said wireless radio link using said allocated resources. acquiring (S102) data to be transmitted on a wireless radio link from the network node to a remote radio unit ; separating (S104) said data into a radio access technology, RAT, payload part and a management data part ; acquiring (S106) channel condition values for said wireless radio link; dynamically allocating (S108) resources between said RAT payload part and said management data part according to said channel condition values, wherein the resource allocation is performed so as to prioritize transmission of the management data part over the RAT payload part , and/or wherein the resource allocation is performed such that the management data part is guaranteed transport over said wireless radio link; and transmitting (S112) said data over said wireless radio link using said allocated resources.