mhurhangee/ep-ind-claims huggingface dataset:
A tissue clip, comprising: an arm having a first electrode; a body pivotally coupled to the arm, the body including: a power source; and a second electrode; wherein the arm is moveable from a first position relative to the body for approximating tissue and a second position closer to the body for grasping tissue therebetween; and characterised by a biasing member configured to generate a sealing pressure to tissue grasped between the arm and the body by biasing the arm relative to the body, further comprising a control unit in the body configured to transfer energy from the power source to the first and/or second electrode (105a, 105b), to thereby seal the tissue. an arm having a first electrode; a body pivotally coupled to the arm, the body including: a power source; and a second electrode; a power source; and a second electrode; wherein the arm is moveable from a first position relative to the body for approximating tissue and a second position closer to the body for grasping tissue therebetween; and characterised by a biasing member configured to generate a sealing pressure to tissue grasped between the arm and the body by biasing the arm relative to the body, further comprising a control unit in the body configured to transfer energy from the power source to the first and/or second electrode (105a, 105b), to thereby seal the tissue.
A branched-type amphiphilic block polymer comprising: a branched hydrophilic block comprising sarcosine; a hydrophobic block comprising polylactic acid; and a linker site that links the hydrophilic block and the hydrophobic block together, wherein the hydrophilic block has 2 or more branches that extend from the linker site, and each of the branches contains sarcosine. a branched hydrophilic block comprising sarcosine; a hydrophobic block comprising polylactic acid; and a linker site that links the hydrophilic block and the hydrophobic block together, wherein the hydrophilic block has 2 or more branches that extend from the linker site, and each of the branches contains sarcosine.
A minimum pressure valve comprising a housing with a valve inlet and a valve outlet which are connected by means of a chamber, said minimum pressure valve further comprising a valve body movable in said chamber between a closed position in which said valve inlet is closed off, and an open position in which said valve inlet is open, whereby said minimum pressure valve further comprises a regulation unit for setting the value of the pressure at which the valve body moves into the open position, and characterized in that the valve body comprises a piston received therein movable between the closed position in which the valve inlet is closed off and the open position in which said valve inlet is open.
A method of providing a wireless extension to a plant automation network connected to a plurality of wired devices, each wired device performing a process control function, the method comprising the step of: connecting a plurality of wireless devices (30-36; 136, 138; 336; 410-418; 506; 604, 620-622) to the plant automation network, each of the plurality of wireless devices adapted to communicate with at least another one of the plurality of wireless devices via at least one respective wireless connection; and providing, to a host (16, 18) disposed in the plant automation network, access to each of the plurality of wired devices by using a first communication protocol utilized by the host, characterized by the step of: providing, to the host, access to each of the plurality of wireless devices by using a second communication protocol utilized by a gateway device (22; 122; 137; 330; 362; 382; 396; 504; 612) communicatively connected to the host (16, 18), the second communication protocol extended from the first communication protocol so that the second communication protocol and the first communication protocol share an application layer and have one or more different layers lower than the shared application layer, wherein providing access to each of the plurality of wireless devices includes: translating, at the gateway device, between at least one of the one or more different layers lower than the shared application layer of the first and the second communication protocols without translating commands and data encapsulated in the shared application layer of the first and the second communication protocols.. connecting a plurality of wireless devices (30-36; 136, 138; 336; 410-418; 506; 604, 620-622) to the plant automation network, each of the plurality of wireless devices adapted to communicate with at least another one of the plurality of wireless devices via at least one respective wireless connection; and providing, to a host (16, 18) disposed in the plant automation network, access to each of the plurality of wired devices by using a first communication protocol utilized by the host, characterized by the step of: providing, to the host, access to each of the plurality of wireless devices by using a second communication protocol utilized by a gateway device (22; 122; 137; 330; 362; 382; 396; 504; 612) communicatively connected to the host (16, 18), the second communication protocol extended from the first communication protocol so that the second communication protocol and the first communication protocol share an application layer and have one or more different layers lower than the shared application layer, wherein providing access to each of the plurality of wireless devices includes: translating, at the gateway device, between at least one of the one or more different layers lower than the shared application layer of the first and the second communication protocols without translating commands and data encapsulated in the shared application layer of the first and the second communication protocols..
A balcony for attachment to a construction, there being a plurality of wall brackets (34a, 34b, 34c, 34d) fitted to the construction, the balcony comprising: a plurality of balcony brackets (36a, 36b) on one side of the balcony which are arranged to engage with the plurality of wall brackets, including a first balcony bracket arranged to engage with a first wall bracket and a second balcony bracket arranged to engage with a second wall bracket, so as to cause the weight of the balcony to be supported by the construction when the balcony is arranged in a mounted position, wherein the first balcony bracket is spaced apart from the second balcony bracket in a substantially vertical direction; and a latch assembly which is configured, when the balcony is arranged in the mounted position, to latch the first balcony bracket to the first wall bracket to securely attach the balcony to the construction, said balcony being characterized in that If the latch assembly comprises a latch which is configured to be movable from an unlatched configuration to a latched configuration by the balcony being moved into the mounted position. a plurality of balcony brackets (36a, 36b) on one side of the balcony which are arranged to engage with the plurality of wall brackets, including a first balcony bracket arranged to engage with a first wall bracket and a second balcony bracket arranged to engage with a second wall bracket, so as to cause the weight of the balcony to be supported by the construction when the balcony is arranged in a mounted position, wherein the first balcony bracket is spaced apart from the second balcony bracket in a substantially vertical direction; and a latch assembly which is configured, when the balcony is arranged in the mounted position, to latch the first balcony bracket to the first wall bracket to securely attach the balcony to the construction, said balcony being characterized in that If the latch assembly comprises a latch which is configured to be movable from an unlatched configuration to a latched configuration by the balcony being moved into the mounted position.
A method of generating a loop-back signal at a mobile station for use in downlink channel estimation by a wireless communication network comprising: receiving a network-transmitted signal as a received signal at a mobile station; obtaining signal samples from the received signal; applying a mobile-specific modification to the signal samples; and transmitting the modified signal samples from the mobile station to the network in a loop-back signal. receiving a network-transmitted signal as a received signal at a mobile station; obtaining signal samples from the received signal; applying a mobile-specific modification to the signal samples; and transmitting the modified signal samples from the mobile station to the network in a loop-back signal.
A visualization instrument comprising: an image presentation component including a display screen and a battery housing; a camera harness coupled to the image presentation component, the camera harness including a wire harness and a camera (100, 450, 612), the camera including a light source configured to illuminate structures in a target space, an image sensor, and an optical train including one or more lenses (470, 474), the optical train configured to receive light reflected from the illuminated structures and refract optical images of the illuminated structures to the image sensor, the image sensor generating an image stream corresponding to the optical images; a blade comprising a blade body including a handle portion integrally formed with an insertable portion, the handle portion having a proximal cavity configured to receive the battery housing, the insertable portion comprising a guide pathway adapted to guide an elongate device, characterised in that the blade further comprises an electronics pathway formed by the blade body and an affixable wall seamed to the body portion to form a sealed seam, and a window at a camera end of the blade body, wherein the camera end of the blade body surrounds and contacts the periphery of the window, the electronics pathway configured to receive the camera harness when the image presentation component is inserted into the proximal cavity of the blade, with the camera (100, 450, 612) positioned adjacent the window. an image presentation component including a display screen and a battery housing; a camera harness coupled to the image presentation component, the camera harness including a wire harness and a camera (100, 450, 612), the camera including a light source configured to illuminate structures in a target space, an image sensor, and an optical train including one or more lenses (470, 474), the optical train configured to receive light reflected from the illuminated structures and refract optical images of the illuminated structures to the image sensor, the image sensor generating an image stream corresponding to the optical images; a blade comprising a blade body including a handle portion integrally formed with an insertable portion, the handle portion having a proximal cavity configured to receive the battery housing, the insertable portion comprising a guide pathway adapted to guide an elongate device, characterised in that the blade further comprises an electronics pathway formed by the blade body and an affixable wall seamed to the body portion to form a sealed seam, and a window at a camera end of the blade body, wherein the camera end of the blade body surrounds and contacts the periphery of the window, the electronics pathway configured to receive the camera harness when the image presentation component is inserted into the proximal cavity of the blade, with the camera (100, 450, 612) positioned adjacent the window.
A polyurethane pultrusion article, comprising a polyurethane pultrusion composite and a coating layer applied thereon, wherein the polyurethane pultrusion composite comprises a polyurethane resin matrix and a reinforcement material, and is prepared by a polyurethane pultrusion process, wherein the polyurethane resin matrix is prepared from a polyurethane composition comprising: A) an isocyanate component comprising one or more polyisocyanates; B) an isocyanate-reactive component comprising: b1) a first polyether polyol having a functionality of 2-3 and a hydroxyl number of 10-120 mgKOH/g; b2) a second polyether polyol having a functionality of 3-8 and a hydroxyl number of 810-1900 mgKOH/g; and b4) one or more isocyanate-reactive flame retardants comprising halogen and/or phosphorus. A) an isocyanate component comprising one or more polyisocyanates; B) an isocyanate-reactive component comprising: b1) a first polyether polyol having a functionality of 2-3 and a hydroxyl number of 10-120 mgKOH/g; b2) a second polyether polyol having a functionality of 3-8 and a hydroxyl number of 810-1900 mgKOH/g; and b4) one or more isocyanate-reactive flame retardants comprising halogen and/or phosphorus. b1) a first polyether polyol having a functionality of 2-3 and a hydroxyl number of 10-120 mgKOH/g; b2) a second polyether polyol having a functionality of 3-8 and a hydroxyl number of 810-1900 mgKOH/g; and b4) one or more isocyanate-reactive flame retardants comprising halogen and/or phosphorus.
Commercial vehicle chassis on which at least one axle of the commercial vehicle is mounted and which comprises at least one longitudinal member (10, 11) and at least one auxiliary longitudinal member (28, 29), each of which extends in the longitudinal direction of the commercial vehicle, characterised in that the commercial vehicle chassis comprises at least one transverse member (15, 16) aligned transversely to the longitudinal direction of the commercial vehicle, which are firmly connected to the longitudinal member (10, 11) and on which the auxiliary longitudinal member (28, 29) is supported, wherein the auxiliary longitudinal member (28, 29) is formed as a sheet metal profile open towards the transverse member (15, 16).
A method for manufacturing a slat wall comprising the steps of; - providing a core presenting a first and a second face (3', 3"), - forming at least one groove extending inwardly from the first face of the core, - inserting an insert, comprising at least one wall defining a cavity, into said groove, - laminating at least one covering layer onto the first face of the core characterized in that the method comprises the step of: - forming at least one slit through the covering layer and through the wall of the insert so that said cavity is accessible. - providing a core presenting a first and a second face (3', 3"), - forming at least one groove extending inwardly from the first face of the core, - inserting an insert, comprising at least one wall defining a cavity, into said groove, - laminating at least one covering layer onto the first face of the core characterized in that the method comprises the step of: - forming at least one slit through the covering layer and through the wall of the insert so that said cavity is accessible.
A compound of formula, a N -oxide form, an addition salt or a stereo-chemically isomeric form thereof, wherein n is 0, 1 or 2; X is N or CR 7, wherein R 7 is hydrogen or taken together with R 1 may form a bivalent radical of formula -CH=CH-CH=CH-; R 1 is C 1-6 alkyl or thienyl; R 2 is hydrogen, hydroxy, C 1-6 alkyl, C 3-6 alkynyl or taken together with R 3 may form =O; R 3 is a radical selected from -(CH 2) s -NR 8 R 9 (a-1), or -O-H (a-2), wherein s is 0, 1, 2 or 3; R 8 is -CHO, C 1-6 alkyl, hydroxyC 1-6 alkyl, C 1-6 alkylcarbonyl, di(C 1-6 alkyl)aminoC 1-6 alkyl, C 1-6 alkyloxyC 1-6 alkyl, C 1-6 alkylcarbonylaminoC 1-6 alkyl, piperidinylC 1-6 alkyl, piperidinylC 1-6 alkylaminocarbonyl, C 1-6 alkyloxy, thienylC 1-6 alkyl, pyrrolylC 1-6 alkyl, arylC 1-6 alkylpiperidinyl, arylcarbonylC 1-6 alkyl, arylcarbonylpiperidinylC 1-6 alkyl, haloindozolylpiperidinylC 1-6 alkyl, or arylC 1-6 alkyl(C 1-6 alkyl)aminoC 1-6 alkyl; R 9 is hydrogen or C 1-6 alkyl; or R 3 is a group of formula -(CH 2) t -Z- (b-1), wherein t is 0, 1, 2 or 3; Z is a heterocyclic ring system selected from wherein each R 12 independently is hydrogen or C 1-6 alkyloxyC 1-6 alkylamino; and each R 13 independently is hydrogen, piperidinyl or aryl; R 4, R 5 and R 6 are each independently selected from hydrogen, halo or C 1-6 alkyl; aryl is phenyl or phenyl substituted with halo, C 1-6 alkyl or C 1-6 alkyloxy; with the proviso that when n is 0, X is N, R 1 is C 1-6 alkyl, R 2 is hydrogen, R 3 is a group of formula (b-1), t is 0, Z is the heterocyclic ring system (c-2) wherein said heterocyclic ring system Z is attached to the rest of the molecule with a nitrogen atom, and R 12 is hydrogen; then at least one of the substituents R 4, R 5 or R 6 is other than hydrogen, halo or C 1-6 alkyl; and with the proviso that 7-benzoyl-3-methyl-2 -quinoxalinone is excluded.
A pulse modulating power source, which comprises: a plurality of discharging modules (M1-Mm) all connected in series during discharging to form a MARX generator; a plurality of triggers (trigger 1 - trigger m) corresponding to said plurality of discharging modules (M1 - Mm), wherein each trigger (trigger 1 - trigger m) provides a trigger signal (Trig - Trig(m)) to the corresponding discharging module (M1-Mm) to turn it on; a control logic module for controlling the trigger signals (Trig - Trig(m)) so as to turn on said plurality of discharging modules (M1-Mm) successively with a time delay (Δt1 - Δt(m-1)); an output terminal coupled to the plurality of discharging modules (M1-Mm) for outputting a voltage (Vout); characterized in that the control logic module is arranged to increase or reduce the time delay (Δt1 - Δt(m-1)) depending on whether a top voltage drop appears at the pulse top or a top voltage rise appears at the pulse top, respectively. a plurality of discharging modules (M1-Mm) all connected in series during discharging to form a MARX generator; a plurality of triggers (trigger 1 - trigger m) corresponding to said plurality of discharging modules (M1 - Mm), wherein each trigger (trigger 1 - trigger m) provides a trigger signal (Trig - Trig(m)) to the corresponding discharging module (M1-Mm) to turn it on; a control logic module for controlling the trigger signals (Trig - Trig(m)) so as to turn on said plurality of discharging modules (M1-Mm) successively with a time delay (Δt1 - Δt(m-1)); an output terminal coupled to the plurality of discharging modules (M1-Mm) for outputting a voltage (Vout); characterized in that the control logic module is arranged to increase or reduce the time delay (Δt1 - Δt(m-1)) depending on whether a top voltage drop appears at the pulse top or a top voltage rise appears at the pulse top, respectively.
A synchronization signal sending method, comprising: sending, by a first communications device, a first synchronization signal burst set to a second communications device in at least one time unit in a first time unit set, wherein the first synchronization signal burst set comprises L synchronization signal blocks, the first time unit set comprises p time units, and p is a positive integer; sending, by the first communications device, a second synchronization signal burst set to the second communications device in at least one time unit in a second time unit set, wherein the second synchronization signal burst set comprises I synchronization signal blocks, the second time unit set comprises q time units, q is a positive integer, each of the synchronization signal blocks of the second synchronization signal burst set comprises at least one of a primary synchronization signal, a secondary synchronization signal, or a physical broadcast channel; an interval between the last time unit in the first time unit set and the 1 st time unit in the second time unit set is m time units, L and I are integers greater than or equal to 1, and m is an integer greater than or equal to 1; and sending, by the first communications device, a complementary sidelink synchronization signal to the second communications device in n time units of the m time units, wherein n is a positive integer less than or equal to m, and the complementary sidelink synchronization signal is to be used by the second communications device to synchronize with the first communications device. sending, by a first communications device, a first synchronization signal burst set to a second communications device in at least one time unit in a first time unit set, wherein the first synchronization signal burst set comprises L synchronization signal blocks, the first time unit set comprises p time units, and p is a positive integer; sending, by the first communications device, a second synchronization signal burst set to the second communications device in at least one time unit in a second time unit set, wherein the second synchronization signal burst set comprises I synchronization signal blocks, the second time unit set comprises q time units, q is a positive integer, each of the synchronization signal blocks of the second synchronization signal burst set comprises at least one of a primary synchronization signal, a secondary synchronization signal, or a physical broadcast channel; an interval between the last time unit in the first time unit set and the 1 st time unit in the second time unit set is m time units, L and I are integers greater than or equal to 1, and m is an integer greater than or equal to 1; and sending, by the first communications device, a complementary sidelink synchronization signal to the second communications device in n time units of the m time units, wherein n is a positive integer less than or equal to m, and the complementary sidelink synchronization signal is to be used by the second communications device to synchronize with the first communications device.
A method for positioning an interference source, applied to a cell in a time division long term evolution, TD-LTE, system, characterized in that the method comprises: performing, by the cell, according to a system reference subcarrier, a frequency offset compensation on a subcarrier to be transmitted by the cell and used for carrying an interference source detection sequence to obtain a compensated to-be-transmitted subcarrier aligned with the system reference subcarrier, and performing, by the cell, according to the system reference subcarrier, a frequency offset compensation on a subcarrier received by the cell and used for carrying an interference source detection sequence to obtain a compensated received subcarrier aligned with a local subcarrier of the cell; performing, by the cell, a correlative processing on the interference source detection sequence carried by the subcarrier received by the cell by using a local interference source detection sequence which is generated locally; and in response to determining that a result of the correlative processing performed by the cell is correlative, determining, by the cell, a cell transmitting the interference source detection sequence as the interference source; wherein the system reference subcarrier is defined by the TD-LTE system, the frequency offset compensation refers to compensation for a frequency offset relative to the system reference subcarrier. performing, by the cell, according to a system reference subcarrier, a frequency offset compensation on a subcarrier to be transmitted by the cell and used for carrying an interference source detection sequence to obtain a compensated to-be-transmitted subcarrier aligned with the system reference subcarrier, and performing, by the cell, according to the system reference subcarrier, a frequency offset compensation on a subcarrier received by the cell and used for carrying an interference source detection sequence to obtain a compensated received subcarrier aligned with a local subcarrier of the cell; performing, by the cell, a correlative processing on the interference source detection sequence carried by the subcarrier received by the cell by using a local interference source detection sequence which is generated locally; and in response to determining that a result of the correlative processing performed by the cell is correlative, determining, by the cell, a cell transmitting the interference source detection sequence as the interference source; wherein the system reference subcarrier is defined by the TD-LTE system, the frequency offset compensation refers to compensation for a frequency offset relative to the system reference subcarrier.