mhurhangee/patent-ind-claim-en huggingface dataset:
A clock delay matrix comprising: a plurality of clock lanes on an integrated circuit, IC, device, wherein each clock lane is configurable to provide a clock for controlling data transmissions in a corresponding data lane of a communications interface, and wherein each clock lane includes: first-level multiplexing logic configured to select between versions of one or more first-level clock signals; second-level multiplexing logic configured to provide a root clock by selecting between an output of the first-level multiplexing logic and outputs of first-level multiplexing logic of two other clock lanes; and a controller that configures the first-level multiplexing logic and the second-level multiplexing logic of the plurality of clock lanes, wherein the controller is configured to control clock skew between outputs of the plurality of clock lanes. a plurality of clock lanes on an integrated circuit, IC, device, wherein each clock lane is configurable to provide a clock for controlling data transmissions in a corresponding data lane of a communications interface, and wherein each clock lane includes: first-level multiplexing logic configured to select between versions of one or more first-level clock signals; second-level multiplexing logic configured to provide a root clock by selecting between an output of the first-level multiplexing logic and outputs of first-level multiplexing logic of two other clock lanes; and a controller that configures the first-level multiplexing logic and the second-level multiplexing logic of the plurality of clock lanes, first-level multiplexing logic configured to select between versions of one or more first-level clock signals; second-level multiplexing logic configured to provide a root clock by selecting between an output of the first-level multiplexing logic and outputs of first-level multiplexing logic of two other clock lanes; and a controller that configures the first-level multiplexing logic and the second-level multiplexing logic of the plurality of clock lanes, wherein the controller is configured to control clock skew between outputs of the plurality of clock lanes.
A semiconductor device comprising: an SOI substrate including a first active region and an element isolation region arranged in contact with the first active region, the SOI substrate including a support substrate, an insulating layer (BOX) formed on the support substrate, and a semiconductor layer formed on the insulating layer; a gate electrode (GE1) formed on the semiconductor layer in the first active region via a gate insulating film (GI1); a source/drain region (SD1) formed in the semiconductor layer on both sides of the gate electrode; a dummy gate electrode (DGE1) formed in the element isolation region, and electrically isolated from the gate electrode; and a sidewall film (DSW) formed on both sides of the dummy gate electrode, wherein the element isolation region is comprised of an insulating film (STI) embedded in a trench deeper than the insulating layer, and the sidewall film is arranged along a boundary between the first active region and the element isolation region. an SOI substrate including a first active region and an element isolation region arranged in contact with the first active region, the SOI substrate including a support substrate, an insulating layer (BOX) formed on the support substrate, and a semiconductor layer formed on the insulating layer; a gate electrode (GE1) formed on the semiconductor layer in the first active region via a gate insulating film (GI1); a source/drain region (SD1) formed in the semiconductor layer on both sides of the gate electrode; a dummy gate electrode (DGE1) formed in the element isolation region, and electrically isolated from the gate electrode; and a sidewall film (DSW) formed on both sides of the dummy gate electrode, wherein the element isolation region is comprised of an insulating film (STI) embedded in a trench deeper than the insulating layer, and the sidewall film is arranged along a boundary between the first active region and the element isolation region.
A method for handling, by a master evolved NodeB, MeNB, in dual connectivity, evolved universal terrestrial radio access network, E-UTRAN, radio access bearer, E-RAB, switch failure for dual connectivity in a wireless communication system, the method comprising: transmitting an E-RAB modification indication message including a list of E-RABs to be modified and a list of E-RABs not to be modified to a mobility management entity, MME; receiving an E-RAB modification confirm message including a list of E-RABs failed to be modified from the MME in a response to the E-RAB modification indication message, wherein at least one E-RAB among the E-RABs failed to be modified is associated with a secondary cell group, SCG, bearer which is added to a secondary evolved NodeB, SeNB; keeping old general packet radio service, GPRS, tunneling protocol, GTP, tunnels for the E-RABs failed to be modified; and triggering a secondary eNB, SeNB, modification procedure for releasing the SCG bearer for the E-RAB among the E-RABs failed to be modified, wherein a user equipment, UE, is connected to both the MeNB and the SeNB in the dual connectivity. transmitting an E-RAB modification indication message including a list of E-RABs to be modified and a list of E-RABs not to be modified to a mobility management entity, MME; receiving an E-RAB modification confirm message including a list of E-RABs failed to be modified from the MME in a response to the E-RAB modification indication message, wherein at least one E-RAB among the E-RABs failed to be modified is associated with a secondary cell group, SCG, bearer which is added to a secondary evolved NodeB, SeNB; keeping old general packet radio service, GPRS, tunneling protocol, GTP, tunnels for the E-RABs failed to be modified; and triggering a secondary eNB, SeNB, modification procedure for releasing the SCG bearer for the E-RAB among the E-RABs failed to be modified, wherein a user equipment, UE, is connected to both the MeNB and the SeNB in the dual connectivity.
A method of adapting a metal bar , for use as a rock bolt , to ensure that the bar will break under load in a predictable manner, the method including the step of removing material from the bar in a circumferential band to reduce a diameter of the bar within the band to a minor diameter thereby to provide a failure zone having a length in a range 10mm to 45mm within which the bar will break if subjected to enough tensile load characterised in that the minor diameter is 0.5% to 5% less than the diameter of the bar .
A hybrid gas turbine engine , comprising: a turbine ; a compressor ; a gear system that is driven by the turbine where the gear system includes a sun gear , a ring gear and a plurality of planet gears , where the ring gear has a ring gear radius of R Ring gear and the sun gear has a sun gear radius of R Sun gear such that the gear system provides a reduction ratio of R Ring gear /R sun gear ; and a fan driven by the ring gear ; characterised by a generator that is driven by the ring gear and provides a generator output signal; a power circuit that receives the generator output signal and provides a gain R Ring gear /R Sun gear to the generator output signal and provides a gain signal indicative thereof; and an electrical load that receives the gain signal. a turbine ; a compressor ; a gear system that is driven by the turbine where the gear system includes a sun gear , a ring gear and a plurality of planet gears , where the ring gear has a ring gear radius of R Ring gear and the sun gear has a sun gear radius of R Sun gear such that the gear system provides a reduction ratio of R Ring gear /R sun gear ; and a fan driven by the ring gear ; characterised by a generator that is driven by the ring gear and provides a generator output signal; a power circuit that receives the generator output signal and provides a gain R Ring gear /R Sun gear to the generator output signal and provides a gain signal indicative thereof; and an electrical load that receives the gain signal.
A method of changing a communication protocol of a first field device (120a- c, 116a-c, 400) in a process control system, the method comprising: decoupling from the first field device (120a- c, 116a-c, 400) of a first process area a first removable communication module (124a-b, 126a-c, 200) of the first process area configured to communicate using a first communication protocol via a field junction box of the first process area ; and coupling to the first field device (120a- c, 116a-c, 400) a second removable communication module (124d-f, 126d-f, 200) of the first process area configured to communicate using a second communication protocol, wherein after coupling the second removable communication module (124d-f, 126d-f, 200) to the first field device, the first field device (120a- c, 116a-c, 400) is configured to communicate using the second communication protocol via the field junction box of the first process area , and wherein the first field device (120a- c, 116a-c, 400) is coupled to a first communication channel on an input/output card when communicating using the first communication protocol and the first field device (120a- c, 116a-c, 400) is coupled to the first communication channel on the input/output card when communicating using the second communication protocol. decoupling from the first field device (120a- c, 116a-c, 400) of a first process area a first removable communication module (124a-b, 126a-c, 200) of the first process area configured to communicate using a first communication protocol via a field junction box of the first process area ; and coupling to the first field device (120a- c, 116a-c, 400) a second removable communication module (124d-f, 126d-f, 200) of the first process area configured to communicate using a second communication protocol, wherein after coupling the second removable communication module (124d-f, 126d-f, 200) to the first field device, the first field device (120a- c, 116a-c, 400) is configured to communicate using the second communication protocol via the field junction box of the first process area , and wherein the first field device (120a- c, 116a-c, 400) is coupled to a first communication channel on an input/output card when communicating using the first communication protocol and the first field device (120a- c, 116a-c, 400) is coupled to the first communication channel on the input/output card when communicating using the second communication protocol.
A feeding device for preparing a feed stream (a) for a solution polymerization, comprising a feed vessel , the feed vessel comprising: - a top zone and a bottom zone ; - a feed stream outlet as a feed outlet configured to withdraw the feed stream (a), wherein the feed stream outlet is positioned at the bottom zone ; - a waste vapour stream outlet as a waste outlet configured to withdraw a waste vapour stream (b), wherein the waste outlet is positioned at the top zone ; - a first heat exchanger positioned below the top zone ; - an absorber positioned below the first heat exchanger ; - a fresh liquid stream inlet as a first inlet configured to introduce a fresh liquid stream (c) into or on top of the absorber , wherein the first inlet is positioned at the absorber ; - a recycle liquid stream inlet as a second inlet configured to introduce a recycle liquid stream (d), wherein the second inlet is positioned below the first inlet ; and - a recycle vapour stream inlet as a third inlet configured to introduce a recycle vapour stream (e), wherein the third inlet is positioned below the second inlet and above the feed outlet . - a top zone and a bottom zone ; - a feed stream outlet as a feed outlet configured to withdraw the feed stream (a), wherein the feed stream outlet is positioned at the bottom zone ; - a waste vapour stream outlet as a waste outlet configured to withdraw a waste vapour stream (b), wherein the waste outlet is positioned at the top zone ; - a first heat exchanger positioned below the top zone ; - an absorber positioned below the first heat exchanger ; - a fresh liquid stream inlet as a first inlet configured to introduce a fresh liquid stream (c) into or on top of the absorber , wherein the first inlet is positioned at the absorber ; - a recycle liquid stream inlet as a second inlet configured to introduce a recycle liquid stream (d), wherein the second inlet is positioned below the first inlet ; and - a recycle vapour stream inlet as a third inlet configured to introduce a recycle vapour stream (e), wherein the third inlet is positioned below the second inlet and above the feed outlet .
A material, comprising: at least one composition represented by Formula I: A x Mn y − k M k j Mn m CN 6 − p NC p z . Vac 1 − z . nH 2 O wherein, in Formula I, each A is an independently selected alkali metal Li, Na, or K; and each dopant M may optionally be at least one independently selected alkaline earth metal Mg or Ca, post-transition metal Al, Ga, In, Sn, or Pb, or transition metal Sc, Ti, V, Cr, Fe, Co, Ni, Cu, Zn, Pd, Ag, or Cd having an average valence j; and wherein 0 < j ≤ 4, 0 ≤ k ≤ 0.1,0 < p ≤ 3, 0 < x ≤ 4, 0 < y ≤ 1,0 < z < 1, and 0 ≤ n ≤ 6; wherein x + 2(y-k) + jk + (m-6)z = 0; and wherein Formula I includes one or more Mn(CN) (6-p) (NC) p complexes each including an Mn atom, and wherein p is an average number of NC groups found in said one or more Mn(CN) (6-p) (NC) p complexes; and wherein m is an average valence of said Mn atoms found in said one or more Mn(CN) 6-p (NC) p complexes; and wherein (Vac) identifies a Mn(CN) (6-p) (NC) p vacancy, and wherein each particular Mn(CN) (6-p) (NC) p complex includes said Mn atom bonded to a plurality of cyanide groups and bonded to one or more isocyanide groups.
A rechargeable battery comprising: an electrode assembly configured to include an electrode in which an uncoated region is formed; a case configured to accommodate the electrode assembly and to be provided with an opening; a cap assembly configured to be provided with an electrode terminal and to be coupled to the opening to seal the case ; and a current collecting plate configured to be coupled to an uncoated region of the electrode assembly , wherein the current collecting plate includes a first flat plate portion provided with a welded portion welded to the uncoated region , a second flat plate portion provided with a fuse portion and electrically connected to the electrode terminal , characterized in that the rechargeable battery further comprises a vibration absorbing portion connected to the first and second flat plate portions of which opposite end portions face each other in a longitudinal direction and having a thinner thickness than that of the first and second flat plate portions . an electrode assembly configured to include an electrode in which an uncoated region is formed; a case configured to accommodate the electrode assembly and to be provided with an opening; a cap assembly configured to be provided with an electrode terminal and to be coupled to the opening to seal the case ; and a current collecting plate configured to be coupled to an uncoated region of the electrode assembly , wherein the current collecting plate includes a first flat plate portion provided with a welded portion welded to the uncoated region , a second flat plate portion provided with a fuse portion and electrically connected to the electrode terminal , characterized in that the rechargeable battery further comprises a vibration absorbing portion connected to the first and second flat plate portions of which opposite end portions face each other in a longitudinal direction and having a thinner thickness than that of the first and second flat plate portions .
A composition comprising: (a) about 8 weight % of 1,1-difluoroethene (R-1132a); (b) about 40 weight % of difluoromethane (R-32); and (c) about 52 weight % of 2,3,3,3-tetrafluoropropene (R-1234yf); based on the total weight of the composition. (a) about 8 weight % of 1,1-difluoroethene (R-1132a); (b) about 40 weight % of difluoromethane (R-32); and (c) about 52 weight % of 2,3,3,3-tetrafluoropropene (R-1234yf);
A method of selecting perfume ingredients to be encapsulated to obtain an encapsulated perfume composition, comprising the steps of (i) determining the RECON-VOLTAE values of the perfume ingredients, wherein the RECON_VOLTAE value is the integral of the molecular iso-surface having an electron density equal to 0.002 e / a 0 3 wherein e is the dimension-less electron charge and a 0 is the Bohr radius of the hydrogen atom; and (ii) selecting the ingredients such that more than 70 wt % of the perfume ingredients have known RECON_VOLTAE values larger than about 1200 Bohr 3 . (i) determining the RECON-VOLTAE values of the perfume ingredients, wherein the RECON_VOLTAE value is the integral of the molecular iso-surface having an electron density equal to 0.002 e / a 0 3 wherein e is the dimension-less electron charge and a 0 is the Bohr radius of the hydrogen atom; and (ii) selecting the ingredients such that more than 70 wt % of the perfume ingredients have known RECON_VOLTAE values larger than about 1200 Bohr 3 .
A lighting system comprising: an outdoor street and/or public space light for illuminating an area; a set of physiological sensors for detecting anxiety to be worn or carried by users when in the area; and a controller for controlling the lighting system, comprising: an input for receiving input information from the set of physiological sensors associated with users in the area illuminated by the lighting system and for receiving information about the location of the users within the area; and an output for controlling the outdoor street and/or public space light of the lighting system, wherein the controller is adapted to: - determine, from the input information, anxiety of the user or users when in or approaching a particular region of the area; and - alter the output in an attempt to reduce the anxiety. an outdoor street and/or public space light for illuminating an area; a set of physiological sensors for detecting anxiety to be worn or carried by users when in the area; and a controller for controlling the lighting system, comprising: an input for receiving input information from the set of physiological sensors associated with users in the area illuminated by the lighting system and for receiving information about the location of the users within the area; and an output for controlling the outdoor street and/or public space light of the lighting system, wherein the controller is adapted to: - determine, from the input information, anxiety of the user or users when in or approaching a particular region of the area; and - alter the output in an attempt to reduce the anxiety. an input for receiving input information from the set of physiological sensors associated with users in the area illuminated by the lighting system and for receiving information about the location of the users within the area; and an output for controlling the outdoor street and/or public space light of the lighting system, wherein the controller is adapted to: - determine, from the input information, anxiety of the user or users when in or approaching a particular region of the area; and - alter the output in an attempt to reduce the anxiety. - determine, from the input information, anxiety of the user or users when in or approaching a particular region of the area; and - alter the output in an attempt to reduce the anxiety.
A rubber composition comprising a diene rubber containing at least one type of styrene-butadiene copolymer and a reinforcing filler, wherein a styrene-butadiene copolymer component including the at least one type of styrene-butadiene copolymer satisfies all of the characteristics of to : a bonded styrene content is from 5 to 50 wt.%; when a decomposed component S1 including one styrene-derived unit and a decomposed component S1V1 including one styrene-derived unit and one 1,2-bonded butadiene-derived unit are measured by gel permeation chromatography as decomposed components obtained by ozone decomposition, a total amount of styrene of the decomposed component S1 and the decomposed component S1V1 is less than 80 wt.% of the amount of bonded styrene, and a total amount of styrene of the decomposed component S1V1 is less than 10 wt.% of the amount of bonded styrene; when the decomposed components obtained by ozone decomposition are measured by a liquid chromatography-mass spectrometer, an integrated intensity of a decomposed component S1V2 including one styrene-derived unit and two 1,2-bonded butadiene-derived units is less than 15% of an integrated intensity of all decomposed components including styrene-derived units; and a vinyl content of a butadiene portion is not less than 20% and less than 50%. a bonded styrene content is from 5 to 50 wt.%; when a decomposed component S1 including one styrene-derived unit and a decomposed component S1V1 including one styrene-derived unit and one 1,2-bonded butadiene-derived unit are measured by gel permeation chromatography as decomposed components obtained by ozone decomposition, a total amount of styrene of the decomposed component S1 and the decomposed component S1V1 is less than 80 wt.% of the amount of bonded styrene, and a total amount of styrene of the decomposed component S1V1 is less than 10 wt.% of the amount of bonded styrene; when the decomposed components obtained by ozone decomposition are measured by a liquid chromatography-mass spectrometer, an integrated intensity of a decomposed component S1V2 including one styrene-derived unit and two 1,2-bonded butadiene-derived units is less than 15% of an integrated intensity of all decomposed components including styrene-derived units; and a vinyl content of a butadiene portion is not less than 20% and less than 50%.
A method for fabricating a high temperature electromagnetic device, the method comprising: formulating a glass coating precursor material containing a first plurality of glass particles having an initial softening point and an inorganic thickening agent; applying the glass coating precursor material onto a wire; heat treating the glass coating precursor material, after application onto the wire, to produce a crystallized intermediary glass coating having a modified softening point exceeding the initial softening point, wherein the inorganic thickening agent increases a viscosity of the crystallized intermediary glass coating as it is heated beyond the modified softening point; infiltrating the crystallized intermediary glass coating with a filler glass precursor material containing a second plurality of glass particles; and heat treating the filler glass precursor material to consolidate the second plurality of glass particles into the crystallized intermediary glass coating and yield a low porosity glass coating adhered to the wire, wherein the low porosity is less than 15% by volume. formulating a glass coating precursor material containing a first plurality of glass particles having an initial softening point and an inorganic thickening agent; applying the glass coating precursor material onto a wire; heat treating the glass coating precursor material, after application onto the wire, to produce a crystallized intermediary glass coating having a modified softening point exceeding the initial softening point, wherein the inorganic thickening agent increases a viscosity of the crystallized intermediary glass coating as it is heated beyond the modified softening point; infiltrating the crystallized intermediary glass coating with a filler glass precursor material containing a second plurality of glass particles; and heat treating the filler glass precursor material to consolidate the second plurality of glass particles into the crystallized intermediary glass coating and yield a low porosity glass coating adhered to the wire, wherein the low porosity is less than 15% by volume.