mhurhangee/ep-ind-claims huggingface dataset:
A charge equalization apparatus, comprising: N transformers (T1...Tn) respectively connected in parallel with N series-connected batteries (B1...Bn) and configured to store energy, discharged from overcharged batteries, among the N batteries, and to charge batteries other than the overcharged batteries with the stored energy; N charge/discharge control switching units (SW1...SWn, D11,...D1n) respectively connected between first ends primary windings of N of a of the N of primary windings of the N transformers (T1...Tn) and a cathode of a first battery of the N batteries so as to supply a charge, supplied by the N series-connected batteries (B1...Bn) to the primary windings of the N transformers (T1...Tn) a redistribution switch connected between a common node of second ends of the primary windings of the N transformers and a ground so as to supply the charge, supplied by the N series-connected batteries (B1...Bn) to the primary windings of the N transformers (T1...Tn), N first semiconductor switching devices (D21...D2n) respectively connected between first ends of secondary windings of the N transformers (T1...Tn) and cathodes of the batteries (B1...Bn); and a voltage detection and drive signal generation unit, configured to detect voltages of respective N series-connected batteries (B1...Bn), to generate a drive signal, required to drive the charge/discharge control switching units (SW1...SWn, D11...D1n) and the redistribution switch, depending on detected voltages, and to control driving of the charge/discharge control switching units (SW1...SWn, D11...D1n) and the redistribution switch. N transformers (T1...Tn) respectively connected in parallel with N series-connected batteries (B1...Bn) and configured to store energy, discharged from overcharged batteries, among the N batteries, and to charge batteries other than the overcharged batteries with the stored energy; N charge/discharge control switching units (SW1...SWn, D11,...D1n) respectively connected between first ends primary windings of N of a of the N of primary windings of the N transformers (T1...Tn) and a cathode of a first battery of the N batteries so as to supply a charge, supplied by the N series-connected batteries (B1...Bn) to the primary windings of the N transformers (T1...Tn) a redistribution switch connected between a common node of second ends of the primary windings of the N transformers and a ground so as to supply the charge, supplied by the N series-connected batteries (B1...Bn) to the primary windings of the N transformers (T1...Tn), N first semiconductor switching devices (D21...D2n) respectively connected between first ends of secondary windings of the N transformers (T1...Tn) and cathodes of the batteries (B1...Bn); and a voltage detection and drive signal generation unit, configured to detect voltages of respective N series-connected batteries (B1...Bn), to generate a drive signal, required to drive the charge/discharge control switching units (SW1...SWn, D11...D1n) and the redistribution switch, depending on detected voltages, and to control driving of the charge/discharge control switching units (SW1...SWn, D11...D1n) and the redistribution switch.
A polyolefin composition comprising; a) 60 to 99 wt% of one or more polyolefin polymers and b) 1 to 40 wt% of a regularly branched PAO ("rbPAO") based on the total weight of the polyolefin polymer(s) and the rbPAO, wherein the rbPAO comprises oligomers of one or more C 2 to C 20 alpha-olefins said rbPAO having: i) a kinematic viscosity at 100°C ("KV100°C") of 3 to 3000 cSt; ii) a Branching Irregularity Index ("BII") of 0.40 or less, where BII = ([C 1]+[C 2])/[C 3 +], where [C 1] is the aggregate concentration of any vinylidene and vinyl olefins present divided by 2 plus the concentration of methyl branches, [C 2] is the concentration of ethyl branches, [C 3+] is the concentration of propyl and longer branches in the PAO, as determined by 13 C NMR, relative to the molar concentration over all PAO molecules in a sample; iii) a molar-average carbon number ("C LAO ") of the alpha-olefin of 6 to 14; and iv) a Mw/Mn of less than {0.525 + 0.625[log(KV100°C)]}, where KV100°C is measured in cSt, provided that the M w /M n of the rbPAO is also less than 2.3. a) 60 to 99 wt% of one or more polyolefin polymers and b) 1 to 40 wt% of a regularly branched PAO ("rbPAO") based on the total weight of the polyolefin polymer(s) and the rbPAO, wherein the rbPAO comprises oligomers of one or more C 2 to C 20 alpha-olefins said rbPAO having: i) a kinematic viscosity at 100°C ("KV100°C") of 3 to 3000 cSt; ii) a Branching Irregularity Index ("BII") of 0.40 or less, where BII = ([C 1]+[C 2])/[C 3 +], where [C 1] is the aggregate concentration of any vinylidene and vinyl olefins present divided by 2 plus the concentration of methyl branches, [C 2] is the concentration of ethyl branches, [C 3+] is the concentration of propyl and longer branches in the PAO, as determined by 13 C NMR, relative to the molar concentration over all PAO molecules in a sample; iii) a molar-average carbon number ("C LAO ") of the alpha-olefin of 6 to 14; and iv) a Mw/Mn of less than {0.525 + 0.625[log(KV100°C)]}, where KV100°C is measured in cSt, provided that the M w /M n of the rbPAO is also less than 2.3. i) a kinematic viscosity at 100°C ("KV100°C") of 3 to 3000 cSt; ii) a Branching Irregularity Index ("BII") of 0.40 or less, where BII = ([C 1]+[C 2])/[C 3 +], where [C 1] is the aggregate concentration of any vinylidene and vinyl olefins present divided by 2 plus the concentration of methyl branches, [C 2] is the concentration of ethyl branches, [C 3+] is the concentration of propyl and longer branches in the PAO, as determined by 13 C NMR, relative to the molar concentration over all PAO molecules in a sample; iii) a molar-average carbon number ("C LAO ") of the alpha-olefin of 6 to 14; and iv) a Mw/Mn of less than {0.525 + 0.625[log(KV100°C)]}, where KV100°C is measured in cSt, provided that the M w /M n of the rbPAO is also less than 2.3.
Clamping device (2, 2', 102, 102') for a vibrating or hammering device (4, 104) for inserting a foundation element having a flange into the ground, wherein the clamping device comprises: - a frame (8, 112); - a first clamp body and a second clamp body (14, 16, 114, 116) that are configured to enable a relative movement, and wherein the first and second clamp bodies are provided with respective first and second clamping surfaces that are configured for engaging with respective first and second flange surfaces; - a positioning drive configured for moving the first clamp body relative to the second clamp body in a positioning direction; and - clamping drive for moving the first clamp body relative to the second clamp body to and/or from the flange surfaces in a clamping direction B, said clamping device being characterized in that it further comprises a pressure relief valve configured to prevent overloading in a driving state wherein the foundation element is inserted into the ground. - a frame (8, 112); - a first clamp body and a second clamp body (14, 16, 114, 116) that are configured to enable a relative movement, and wherein the first and second clamp bodies are provided with respective first and second clamping surfaces that are configured for engaging with respective first and second flange surfaces; - a positioning drive configured for moving the first clamp body relative to the second clamp body in a positioning direction; and - clamping drive for moving the first clamp body relative to the second clamp body to and/or from the flange surfaces in a clamping direction B,
A primary satellite communications receiver for receiving at least one user-band signal (UB_1, UB_2,...) from a plurality of user-band signals (UB_1, UB_2,..., UB_Msg) within a band of intermediate frequencies (L-B) via a common cable from a low-noise block down-converter, comprising: a processor for providing instructions to the low-noise block down-converter via the common cable, the instructions operable to cause the low-noise block down-converter to down-convert, to one or more particular user-band signals, one or more corresponding radio frequency signals from one or more corresponding transponders from a plurality of transponders each providing radio frequency signals at different frequencies within a band of radio frequencies (KU-B); characterised in that: the processor is further configured to provide further instructions to the low-noise block-down-converter via the common cable, the further instructions operable to successively select either one or another message transponder from a predetermined plurality of message transponders, for down-converting of the selected message transponder's radio frequency signal to one pre-determined message user-band within the band of intermediate frequencies (L-B), the selection dependent on the values of successive symbols of a pre-determined message comprising a series of symbols, each of the predetermined plurality of message transponders' radio frequency signals being distinguishable from each other and traceable to its respective message transponder. a processor for providing instructions to the low-noise block down-converter via the common cable, the instructions operable to cause the low-noise block down-converter to down-convert, to one or more particular user-band signals, one or more corresponding radio frequency signals from one or more corresponding transponders from a plurality of transponders each providing radio frequency signals at different frequencies within a band of radio frequencies (KU-B); characterised in that: the processor is further configured to provide further instructions to the low-noise block-down-converter via the common cable, the further instructions operable to successively select either one or another message transponder from a predetermined plurality of message transponders, for down-converting of the selected message transponder's radio frequency signal to one pre-determined message user-band within the band of intermediate frequencies (L-B), the selection dependent on the values of successive symbols of a pre-determined message comprising a series of symbols, each of the predetermined plurality of message transponders' radio frequency signals being distinguishable from each other and traceable to its respective message transponder.
Compound of formula: wherein R 1, R 2, R 3, R 4 are selected from: -(C 1 -C 12)-alkyl, -O-(C 1 -C 12)-alkyl, and R 5 is selected from: -(C 1 -C 12)-alkyl, -O-(C 1 -C 12)-alkyl, - Ph. wherein R 1, R 2, R 3, R 4 are selected from: -(C 1 -C 12)-alkyl, -O-(C 1 -C 12)-alkyl, and R 5 is selected from: -(C 1 -C 12)-alkyl, -O-(C 1 -C 12)-alkyl, - Ph.
A roaming service method used in a terminal of a mobile broadcasting system, the method comprising: transmitting (403; 803; 1303) a roaming request message for requesting at least one purchase item allowable for individual services to at least one of its home service provider, Home SP, and a visited service provider, Visited SP, based on a service guide received from the Visited SP when the terminal moves to a roaming area; receiving (406; 806; 1306) a roaming response message from the at least one of the Home SP and the Visited SP, checking roaming availability and allowable scope for each individual service included in the roaming response message, and transmitting at least one of agreement and disagreement to the Home SP or the Visited SP; and if the checked roaming condition is agreed, receiving (408; 808; 1325) an enciphering key from the at least one of the Home SP and the Visited SP. transmitting (403; 803; 1303) a roaming request message for requesting at least one purchase item allowable for individual services to at least one of its home service provider, Home SP, and a visited service provider, Visited SP, based on a service guide received from the Visited SP when the terminal moves to a roaming area; receiving (406; 806; 1306) a roaming response message from the at least one of the Home SP and the Visited SP, checking roaming availability and allowable scope for each individual service included in the roaming response message, and transmitting at least one of agreement and disagreement to the Home SP or the Visited SP; and if the checked roaming condition is agreed, receiving (408; 808; 1325) an enciphering key from the at least one of the Home SP and the Visited SP.
An annular combustion chamber of a gas turbine engine comprising a casing with at least one air tapping outlet situated at the chamber inlet, a fuel supply device with a plurality of fuel injectors in the chamber distributed annularly of which at least one (15a to 15d) is situated close to said tapping outlet, wherein the fuel supply device comprises a means for reducing the fuel flow rate in said injector (15a to 15d) situated close to the tapping outlet (20a, 20b) relative to the other fuel injectors.
A bone screw (500; 600), comprising: a shaft (506; 606) having a wall; a cannulated portion (520; 620) disposed inside the shaft (506; 606); and a fenestration (530; 630) in the shaft (506; 606) connecting the cannulated portion (520; 620) to an exterior of the bone screw (500; 600); characterised in that the cannulated portion (520; 620) is not coaxial with the shaft (506; 606), such that the wall includes a first wall portion (526; 626) having a different thickness than a second wall portion (528; 628). a shaft (506; 606) having a wall; a cannulated portion (520; 620) disposed inside the shaft (506; 606); and a fenestration (530; 630) in the shaft (506; 606) connecting the cannulated portion (520; 620) to an exterior of the bone screw (500; 600); characterised in that the cannulated portion (520; 620) is not coaxial with the shaft (506; 606), such that the wall includes a first wall portion (526; 626) having a different thickness than a second wall portion (528; 628).
A method for deactivating Idle mode Signaling Reduction, ISR, comprising: when a registration state of a user equipment of a current core network node in a pair of core network nodes with ISR activated is changed, sending, by the current core network node, an ISR deactivating message or a detach notification message to an associated core network node and indicating the associated core network node to perform related operation; wherein the related operation indicated by the ISR deactivating message comprises one of the following: ISR deactivation, ISR deactivation and bearer deletion; wherein the related operation indicated by the detach notification message comprises one of the following: detach only in the current network locally, detach in both the current network and the associated network completely; characterized in that in the case that the detach is not caused by the switch off of the user equipment, the related operation is the ISR deactivation; in the case that an ISR deactivation is caused by the detach which is caused by the switch off of the user equipment or by a change of one of the pair of core network nodes with ISR activated, the related operation is the ISR deactivation and the bearer deletion; wherein in the case that the detach is not caused by the switch off of the user equipment, the related operation is detach only in the current network locally; in the case that the detach is caused by the switch off of the user equipment, the related operation is detach in both the current network and the associated network completely. when a registration state of a user equipment of a current core network node in a pair of core network nodes with ISR activated is changed, sending, by the current core network node, an ISR deactivating message or a detach notification message to an associated core network node and indicating the associated core network node to perform related operation; wherein the related operation indicated by the ISR deactivating message comprises one of the following: ISR deactivation, ISR deactivation and bearer deletion; wherein the related operation indicated by the detach notification message comprises one of the following: detach only in the current network locally, detach in both the current network and the associated network completely; characterized in that in the case that the detach is not caused by the switch off of the user equipment, the related operation is the ISR deactivation; in the case that an ISR deactivation is caused by the detach which is caused by the switch off of the user equipment or by a change of one of the pair of core network nodes with ISR activated, the related operation is the ISR deactivation and the bearer deletion; wherein in the case that the detach is not caused by the switch off of the user equipment, the related operation is detach only in the current network locally; in the case that the detach is caused by the switch off of the user equipment, the related operation is detach in both the current network and the associated network completely.
A remote unit comprising: a receiver configured to receive, from a base unit: one or multiple downlink transmissions within a channel occupancy time initiated by the base unit, a first message indicating a first candidate opportunity for transmission of a Hybrid Automatic Repeat Request-Acknowledgement, HARQ-ACK, codebook corresponding to the one or multiple downlink transmissions and a second message indicating a number of allowed opportunities for transmission of the HARQ-ACK codebook; a processor configured to determine the HARQ-ACK codebook and a number of total candidate opportunities for transmission of the HARQ-ACK codebook; and a transmitter configured to, in response to a channel access for the first candidate opportunity being successful, transmits the HARQ-ACK codebook in the first candidate opportunity, and, in response to the channel access for the first candidate opportunity being failed and the number of the total candidate opportunities being larger than one, attempts to transmit the HARQ-ACK codebook in a second candidate opportunity; characterized in that the processor is further configured to determine the number of total candidate opportunities based on whether the first candidate opportunity is inside or outside of the channel occupancy time. a receiver configured to receive, from a base unit: one or multiple downlink transmissions within a channel occupancy time initiated by the base unit, a first message indicating a first candidate opportunity for transmission of a Hybrid Automatic Repeat Request-Acknowledgement, HARQ-ACK, codebook corresponding to the one or multiple downlink transmissions and a second message indicating a number of allowed opportunities for transmission of the HARQ-ACK codebook; one or multiple downlink transmissions within a channel occupancy time initiated by the base unit, a first message indicating a first candidate opportunity for transmission of a Hybrid Automatic Repeat Request-Acknowledgement, HARQ-ACK, codebook corresponding to the one or multiple downlink transmissions and a second message indicating a number of allowed opportunities for transmission of the HARQ-ACK codebook; a processor configured to determine the HARQ-ACK codebook and a number of total candidate opportunities for transmission of the HARQ-ACK codebook; and a transmitter configured to, in response to a channel access for the first candidate opportunity being successful, transmits the HARQ-ACK codebook in the first candidate opportunity, and, in response to the channel access for the first candidate opportunity being failed and the number of the total candidate opportunities being larger than one, attempts to transmit the HARQ-ACK codebook in a second candidate opportunity; characterized in that the processor is further configured to determine the number of total candidate opportunities based on whether the first candidate opportunity is inside or outside of the channel occupancy time.
Method for the bulk determination of scrap metal content, said method comprising the steps of - providing a scrap metal input; - preparing said input for submission to a bulk scanning apparatus; - scanning at least part of the scrap metal with a bulk scanning apparatus to determine the composition of the scrap metal; and securing said scrap metal from the step of providing the scrap metal input to the step of scanning at least part of the scrap metal, wherein said scanning comprises low-intensity neutron scattering. - providing a scrap metal input; - preparing said input for submission to a bulk scanning apparatus; - scanning at least part of the scrap metal with a bulk scanning apparatus to determine the composition of the scrap metal;
A constant water temperature faucet structure, comprising: a main body, a cold water input tube, a hot water input tube, an output water switching handle, and a temperature control rotation handle, wherein the main body has an outer shell that receives a constant temperature valve core, a water channel switching rod and a central hole channel, wherein the cold water input tube and the hot water input tube are connected respectively to the outer shell, wherein the constant temperature valve core provided inside the outer shell is connected to the cold water input tube and the hot water input tube, and wherein the water channel switching rod is in communication with a water output port of the constant temperature valve core, wherein the central hole channel is provided in a central portion of the water channel switching rod, and wherein a water outlet hole is formed on a surface of the water channel switching rod, wherein the water outlet hole communicates with the central hole channel, wherein on the outer shell a water output hole is provided that communicates with the water outlet hole, and wherein the constant temperature valve core is connected to the temperature control rotation handle located at one end of the outer shell, while the output water switching handle located at other end of the outer shell is connected to the water channel switching rod, characterized in that the constant water temperature faucet structure further comprises: a compression spring, and a tight seal pad, wherein the tight seal pad is disposed on the water outlet hole and having its center provided with a water passage hole, and wherein the compression spring is provided between the tight seal pad and the water outlet hole. a compression spring, and a tight seal pad, wherein the tight seal pad is disposed on the water outlet hole and having its center provided with a water passage hole, and wherein the compression spring is provided between the tight seal pad and the water outlet hole.