mhurhangee/patent-ind-claim-en huggingface dataset:
An array substrate , comprising a pixel region and a peripheral wiring region , wherein, the peripheral wiring region comprises a transparent conductive contact electrode disposed on a base substrate , and the pixel region comprises a common electrode and a pixel electrode disposed on the base substrate , the transparent conductive contact electrode is electrically connected with a metal electrode line (2031; 2041) disposed below the transparent conductive contact electrode through via holes (2052, 3022; 3061, 3023) disposed in different insulating layers (302, 205; 302, 306) respectively, wherein the via holes are connected with each other by an electrode reserved pattern and orthographic projections of the via holes (2052, 3022; 3061, 3023) on the base substrate do not overlap with each other; characterized in that the electrode reserved pattern is transparent; and if the pixel electrode is provided above the common electrode , then the transparent conductive contact electrode is provided in a same layer with the pixel electrode , and the transparent electrode reserved pattern is provided in a same layer with the common electrode ; alternatively, if the common electrode is provided above the pixel electrode , then the transparent conductive contact electrode is provided in a same layer with the common electrode and the transparent electrode reserved pattern is provided in a same layer with the pixel electrode .
An electrolyte solution comprising a compound of the formula : wherein R 101 and R 102 each individually are a substituent selected from H, F, C 1-7 -alkyl, C 2-7 -alkenyl, C 2-7 -alkynyl, C 6-15 -aryl, -O p101 - (SiR 103 2 O) n101 -SiR 104 3 , wherein R 103 and R 104 each individually are alkyl, alkenyl, alkynyl or an aryl, each optionally fluorinated; n101 is an integer of ≥ 0 and p101 is 0 or 1, -SO 2 X 101 and -SO 3 X 102 , wherein X 101 and X 102 each independently are H, F, or optionally fluorinated alkyl, R 101 and R 102 are bonded to a cyclic C 2-7 -hydrocarbon group optionally containing a multiple bond, the substituent optionally contains at least one di- to hexavalent hetero atom in the structure or optionally has a structure obtained by replacing at least one H by F or a C 0-7 -functional group, and at least one of R 101 and R 102 , when both being alkyl, contains at least one di- to hexavalent hetero atom in the structure or has a structure obtained by replacing at least one H by F or a C 0-7 -functional group. wherein R 101 and R 102 each individually are a substituent selected from H, F, C 1-7 -alkyl, C 2-7 -alkenyl, C 2-7 -alkynyl, C 6-15 -aryl, -O p101 - (SiR 103 2 O) n101 -SiR 104 3 , wherein R 103 and R 104 each individually are alkyl, alkenyl, alkynyl or an aryl, each optionally fluorinated; n101 is an integer of ≥ 0 and p101 is 0 or 1, -SO 2 X 101 and -SO 3 X 102 , wherein X 101 and X 102 each independently are H, F, or optionally fluorinated alkyl, R 101 and R 102 are bonded to a cyclic C 2-7 -hydrocarbon group optionally containing a multiple bond, the substituent optionally contains at least one di- to hexavalent hetero atom in the structure or optionally has a structure obtained by replacing at least one H by F or a C 0-7 -functional group, and at least one of R 101 and R 102 , when both being alkyl, contains at least one di- to hexavalent hetero atom in the structure or has a structure obtained by replacing at least one H by F or a C 0-7 -functional group.
A method for preparing a positive electrode active material comprising: mixing a precursor of a metal for a positive electrode active material with a nanosol of a ceramic-based ion conductor to adsorb the nanosol of the ceramic-based ion conductor on the precursor surface; and mixing the nanosol of the ceramic-based ion conductor-adsorbed precursor with a lithium raw material, and heat treating the resultant to prepare a positive electrode active material including lithium complex metal oxide particles, wherein the lithium complex metal oxide present on a surface side of the lithium complex metal oxide particles is doped with a metal element of the ceramic-based ion conductor, and wherein the nanosol of the ceramic-based ion conductor is a sol of the ceramic-based ion conductor in a hydroxide form having nano-level particle sizes, noncrystalline, and having a hydroxyl group on the surface, which may be prepared by dissolving a precursor of a metal for forming the ceramic-based ion conductor in a glycol-based solvent, and then hydrating the result by adding water thereto, and the precursor of a metal for a positive electrode active material is a hydroxide containing a metal for a positive electrode active material. mixing a precursor of a metal for a positive electrode active material with a nanosol of a ceramic-based ion conductor to adsorb the nanosol of the ceramic-based ion conductor on the precursor surface; and mixing the nanosol of the ceramic-based ion conductor-adsorbed precursor with a lithium raw material, and heat treating the resultant to prepare a positive electrode active material including lithium complex metal oxide particles, wherein the lithium complex metal oxide present on a surface side of the lithium complex metal oxide particles is doped with a metal element of the ceramic-based ion conductor, and wherein the nanosol of the ceramic-based ion conductor is a sol of the ceramic-based ion conductor in a hydroxide form having nano-level particle sizes, noncrystalline, and having a hydroxyl group on the surface, which may be prepared by dissolving a precursor of a metal for forming the ceramic-based ion conductor in a glycol-based solvent, and then hydrating the result by adding water thereto, and the precursor of a metal for a positive electrode active material is a hydroxide containing a metal for a positive electrode active material.
Timepiece resonator mechanism comprising a pivoting weight arranged to rotatably pivot about a virtual pivot axis (A), said resonator mechanism comprising a first fixed support and a second fixed support to which is attached a flexure pivot bearing mechanism which comprises a rotary support connected to said first fixed support by a first resilient assembly and connected to said second fixed support by a second resilient assembly which defines said virtual pivot axis (A) with said first resilient assembly , said pivoting weight being attached to said rotary support or formed by said rotary support , and wherein said flexure pivot bearing mechanism is planar, characterized in that said first resilient assembly comprises, on either side of said virtual pivot axis (A), a first outer flexible strip and a first inner flexible strip , joined to each other by a first intermediate strip stiffer than each of the latter, together defining a first direction (D1) which passes through said virtual pivot axis (A), and in that said second resilient assembly comprises a second flexible strip defining a second direction (D2) which passes through said virtual pivot axis (A), and characterized in that said second flexible strip is secured in said second fixed support at a second outer attachment point , and in said rotary support at a second inner attachment point , and in that said second outer attachment point and said second inner attachment point are located on either side of a straight line parallel to said first direction (D1) and passing through said virtual pivot axis (A).
A method of manufacturing a tracheal tube, comprising the steps of: molding a tubular shaft; molding a cuff including two collars, one at each end of the cuff; inverting said cuff so that its original inner surface becomes the surface that is exposed to the environment and its original outer surface forms the interior surface of said cuff; attaching the two collars of said cuff proximate to a patient end of said shaft at spaced locations; and integrally forming a lumen along at least a portion of said shaft with its patient end located inside said cuff to enable said cuff to be inflated when a fluid is input to the machine end of said lumen. molding a tubular shaft; molding a cuff including two collars, one at each end of the cuff; inverting said cuff so that its original inner surface becomes the surface that is exposed to the environment and its original outer surface forms the interior surface of said cuff; attaching the two collars of said cuff proximate to a patient end of said shaft at spaced locations; and integrally forming a lumen along at least a portion of said shaft with its patient end located inside said cuff to enable said cuff to be inflated when a fluid is input to the machine end of said lumen.
A method for processing data, at a transmiter, the method comprising: receiving , transmission data packets passed through a higher layer of the transmitter, wherein the transmission data packets are data packets to be transmitted by the transmitter; processing , the transmission data packets at a transport layer 1, wherein processing at the transport layer 1 during transmission comprises: allocating Sequence Numbers, SNs; the transport layer 1 refers to Layer 2 protocol, L2, high layer, and processing , the processed transmission data packets, at a transport layer 2, wherein processing at the transport layer 2 during transmission comprises: passing the processed transmission data packets to a physical layer according to a size of a scheduled transmission resource so that they are transmitted via an air interface to a receiver; the transport layer 2 refers to L2 low layer; wherein L2 relates to 3rd Generation Partnership Project, 3 GPP-defined mobile networks; wherein processing at the transport layer 1 during transmission further comprises: deciding whether to segment the data packets to be initially transmitted, at the transport layer 1 according to a configuration, and/or deciding whether to segment the data packets to be retransmitted, at the transport layer 1 according to a configuration, and if so, passing the transmission data packets segmented at the transport layer 1 to the transport layer 2 for processing, wherein the configuration for initial transmission of the data packets is the same as or different from the configuration for retransmission of the data packets. receiving , transmission data packets passed through a higher layer of the transmitter, wherein the transmission data packets are data packets to be transmitted by the transmitter; processing , the transmission data packets at a transport layer 1, wherein processing at the transport layer 1 during transmission comprises: allocating Sequence Numbers, SNs; the transport layer 1 refers to Layer 2 protocol, L2, high layer, and processing , the processed transmission data packets, at a transport layer 2, wherein processing at the transport layer 2 during transmission comprises: passing the processed transmission data packets to a physical layer according to a size of a scheduled transmission resource so that they are transmitted via an air interface to a receiver; the transport layer 2 refers to L2 low layer; wherein L2 relates to 3rd Generation Partnership Project, 3 GPP-defined mobile networks; wherein processing at the transport layer 1 during transmission further comprises: deciding whether to segment the data packets to be initially transmitted, at the transport layer 1 according to a configuration, and/or deciding whether to segment the data packets to be retransmitted, at the transport layer 1 according to a configuration, and if so, passing the transmission data packets segmented at the transport layer 1 to the transport layer 2 for processing, wherein the configuration for initial transmission of the data packets is the same as or different from the configuration for retransmission of the data packets.
A gas barrier film comprising a substrate film, a weather-resistant coating layer formed on at least one surface thereof, and an inorganic thin film layer formed on the surface of the coating layer, wherein the weather-resistant coating layer is selected from: a weather-resistant coating layer formed by crosslinking an acrylic copolymer having a UV-absorbing group, a cycloalkyl group and a crosslinking functional group, with a crosslinking compound, a weather-resistant coating layer formed by crosslinking a polycaprolactone-polyol and/or a polycarbonate-polyol having a terminal hydroxyl index of from 92.5 to 98.5 with an isocyanate compound and/or an epoxy compound, the terminal hydroxyl index being the ratio (%) of the peak area of polyol to the sum total of the peak area of monoalcohol and polyol as analyzed by gas chromatography, which is performed by heating from 40 °C up to 220°C at 10°C/min, keeping as such for 15 minutes, and analyzing with a hydrogen flame ionization detector, and a weather-resistant coating layer formed by crosslinking polyvinyl butyral having a degree of butyralization of from 50 to 80 mol% and an isotactic triad-type residual hydroxyl group content of at most 1 mol% and/or polyvinyl acetal having a degree of acetalization of from 50 to 80 mol% with with an isocyanate compound and/or an epoxy compound. a weather-resistant coating layer formed by crosslinking an acrylic copolymer having a UV-absorbing group, a cycloalkyl group and a crosslinking functional group, with a crosslinking compound, a weather-resistant coating layer formed by crosslinking a polycaprolactone-polyol and/or a polycarbonate-polyol having a terminal hydroxyl index of from 92.5 to 98.5 with an isocyanate compound and/or an epoxy compound, the terminal hydroxyl index being the ratio (%) of the peak area of polyol to the sum total of the peak area of monoalcohol and polyol as analyzed by gas chromatography, which is performed by heating from 40 °C up to 220°C at 10°C/min, keeping as such for 15 minutes, and analyzing with a hydrogen flame ionization detector, and a weather-resistant coating layer formed by crosslinking polyvinyl butyral having a degree of butyralization of from 50 to 80 mol% and an isotactic triad-type residual hydroxyl group content of at most 1 mol% and/or polyvinyl acetal having a degree of acetalization of from 50 to 80 mol% with with an isocyanate compound and/or an epoxy compound.
An electrical device capable of operating at an operating ambient temperature higher than 300°C, said device comprising an electrical component mounted inside a casing , a transmission/reception antenna and at least one electrical and mechanical connection between the electrical component and a pole of the antenna, the electrical and mechanical connection comprising: a metal stud , a connection surface of which is positioned against an external surface of the casing, the pole of the antenna being connected to said stud, an electrical connection tab having a first end connected to the electrical component, and an fixing means adapted to secure the pad, the casing and a second end of the connection tab of the component; wherein the stud comprises a groove opening onto a clearance surface of the stud, which groove is adapted to receive a fixing end of the pole of the antenna. a metal stud , a connection surface of which is positioned against an external surface of the casing, the pole of the antenna being connected to said stud, an electrical connection tab having a first end connected to the electrical component, and an fixing means adapted to secure the pad, the casing and a second end of the connection tab of the component; wherein the stud comprises a groove opening onto a clearance surface of the stud, which groove is adapted to receive a fixing end of the pole of the antenna.
A wide-angle photographic objective comprising, in sequence from an object-side end to an image-side end, a front group (VG) of total positive refractive power having at least four lenses (L1 - L4); a middle group (MG) of total positive refractive power having at least three lenses (L5 - L7); and a rear group (HG) of total positive refractive power having at least three lenses (L8 - L10), wherein the quotient of the focal length of the front group (VG) and the total focal length of the objective amounts to between 2.28 and 2.79, the quotient of the focal length of the middle group (MG) and the total focal length of the objective amounts to between 3.02 and 3.69, and the quotient of the focal length of the rear group (HG) and the total focal length of the objective amounts to between 3.50 and 4.29, wherein the front group (VG) comprises, in sequence from an object-side end to an image-side end, at least a first lens (L1) having a positive refractive power, a second lens (L2) having a negative refractive power, a third lens (L3) having a negative refractive power, and a fourth lens (L4) having a positive refractive power, with the lenses having a positive refractive power (L1, L4) being bi-convex and the lenses having a negative refractive power (L2, L3) being bi-concave, wherein the lenses (L1 - L4) of the front group (VG) have an Abbe number of between 38 and 45, with the lenses (L2, L3) of the front group (VG), which have a negative refractive power, having a deviation of the relative partial dispersion ΔP g,F from the normal line of less than or equal to -0.0035, and wherein the first lens (L1) has a refractive index of between 1.80 and 1.86 and the fourth lens (L4) has a refractive index of greater than or equal to 1.86. wherein the front group (VG) comprises, in sequence from an object-side end to an image-side end, at least a first lens (L1) having a positive refractive power, a second lens (L2) having a negative refractive power, a third lens (L3) having a negative refractive power, and a fourth lens (L4) having a positive refractive power, with the lenses having a positive refractive power (L1, L4) being bi-convex and the lenses having a negative refractive power (L2, L3) being bi-concave, wherein the lenses (L1 - L4) of the front group (VG) have an Abbe number of between 38 and 45, with the lenses (L2, L3) of the front group (VG), which have a negative refractive power, having a deviation of the relative partial dispersion ΔP g,F from the normal line of less than or equal to -0.0035, and wherein the first lens (L1) has a refractive index of between 1.80 and 1.86 and the fourth lens (L4) has a refractive index of greater than or equal to 1.86.
A duplex filter arrangement for frequency-division duplex communication, the duplex filter arrangement comprising: a first radio frequency port ; a second radio frequency port configured to be connected to an antenna ; a third radio frequency port ; a fourth radio frequency port configured to be connected to a balancing circuit ; a filtering arrangement comprising filters of a first type, a filter of a second type and a filter of a third type; wherein the filters of the first type are configured to pass signals at a first frequency band and reject signals at a second frequency band, and wherein a first filter of the filters of the first type is connected between the first radio frequency port and the second radio frequency port and a second filter of the filters of the first type is connected between the third radio frequency port and fourth radio frequency port ; wherein the filter of the second type is configured to reject signals at the first frequency band and pass signals at the second frequency band, and wherein the filter of the second type is connected between the third radio frequency port and the second radio frequency port ; wherein the filter of the third type is configured to reject signals at the first frequency band and pass signals at the second frequency band, and wherein the filter of the third type is connected between the first radio frequency port and the fourth radio frequency port ; and wherein the phase response of the filter of the second type differs at the first frequency band and at the second frequency band substantially 180 degrees from the phase response of the filter of the third type. a first radio frequency port ; a second radio frequency port configured to be connected to an antenna ; a third radio frequency port ; a fourth radio frequency port configured to be connected to a balancing circuit ; a filtering arrangement comprising filters of a first type, a filter of a second type and a filter of a third type; wherein the filters of the first type are configured to pass signals at a first frequency band and reject signals at a second frequency band, and wherein a first filter of the filters of the first type is connected between the first radio frequency port and the second radio frequency port and a second filter of the filters of the first type is connected between the third radio frequency port and fourth radio frequency port ; wherein the filter of the second type is configured to reject signals at the first frequency band and pass signals at the second frequency band, and wherein the filter of the second type is connected between the third radio frequency port and the second radio frequency port ; wherein the filter of the third type is configured to reject signals at the first frequency band and pass signals at the second frequency band, and wherein the filter of the third type is connected between the first radio frequency port and the fourth radio frequency port ; and wherein the phase response of the filter of the second type differs at the first frequency band and at the second frequency band substantially 180 degrees from the phase response of the filter of the third type.
A container ship or container yard comprising stacks of refrigerated storage containers , local controllers respectively coupled with corresponding refrigerated storage containers to control operations thereof in accordance with controller parameters, and a supervisory controller , the supervisory controller comprising: an input unit disposed to receive first data from each local controller of the refrigerated storage containers and second data from at least one sensor of each refrigerated storage containers ; an output unit disposed to issue control commands to each local controller ; and a processing unit configured to generate the control commands based on an optimized control strategy derived from a correlation between the first and second data, wherein: the first data comprises condenser air inlet temperature measurements of each refrigerated container and operational parameters of each refrigerated container , the operational parameters comprise refrigerated container on/off mode information, desired set point information, allowable temperature variability information and ambient temperature information, and the second data comprises at least one or more of refrigerated container cargo space controlled temperature information and electrical power draw information. an input unit disposed to receive first data from each local controller of the refrigerated storage containers and second data from at least one sensor of each refrigerated storage containers ; an output unit disposed to issue control commands to each local controller ; and a processing unit configured to generate the control commands based on an optimized control strategy derived from a correlation between the first and second data, wherein: the first data comprises condenser air inlet temperature measurements of each refrigerated container and operational parameters of each refrigerated container , the operational parameters comprise refrigerated container on/off mode information, desired set point information, allowable temperature variability information and ambient temperature information, and the second data comprises at least one or more of refrigerated container cargo space controlled temperature information and electrical power draw information. the first data comprises condenser air inlet temperature measurements of each refrigerated container and operational parameters of each refrigerated container , the operational parameters comprise refrigerated container on/off mode information, desired set point information, allowable temperature variability information and ambient temperature information, and the second data comprises at least one or more of refrigerated container cargo space controlled temperature information and electrical power draw information.