mhurhangee/patent-ind-claim-en huggingface dataset:
A cationic polymer represented by: A) wherein "P 1 " and "P 2 " represent portions of the cationic polymer to which the first functional group shown in A is bonded, the cationic polymer having a backbone or polymer chain comprising polyether or polyester blocks; or B) wherein "P" represents the remainder of the cationic polymer to which the second functional group shown in B is bonded, wherein "X" represents an anion; or a cationic polymer comprising: one or more of the first functional groups as shown in A, wherein "P 1 " and "P 2 " represent portions of the cationic polymer to which the first functional group shown in A is bonded wherein "X" represents an anion, and one or more of the second functional groups as shown in B, wherein B is as defined above. A) wherein "P 1 " and "P 2 " represent portions of the cationic polymer to which the first functional group shown in A is bonded, the cationic polymer having a backbone or polymer chain comprising polyether or polyester blocks; or B) wherein "P" represents the remainder of the cationic polymer to which the second functional group shown in B is bonded, wherein "X" represents an anion; or a cationic polymer comprising: one or more of the first functional groups as shown in A, wherein "P 1 " and "P 2 " represent portions of the cationic polymer to which the first functional group shown in A is bonded wherein "X" represents an anion, and one or more of the second functional groups as shown in B, wherein B is as defined above. wherein "P" represents the remainder of the cationic polymer to which the second functional group shown in B is bonded, wherein "X" represents an anion; one or more of the first functional groups as shown in A, wherein "P 1 " and "P 2 " represent portions of the cationic polymer to which the first functional group shown in A is bonded wherein "X" represents an anion, and one or more of the second functional groups as shown in B, wherein B is as defined above.
Load-bearing battery module for a motor vehicle , comprising a module housing having module side walls , a module floor , and a module cover , and comprising a cell package having a plurality of battery cells arranged within the module housing , characterized in that at least one spring device is arranged between at least one first module side wall and the cell package , the spring device being designed to push the cell package in the direction of a second module side wall opposite the first module side wall in order to form a deformation space between the first module side wall and the cell package , a cooling device for dissipating heat from the cell package being arranged between the cell package and the module cover , a spring device being arranged between the module floor and the cell package , the spring device being designed to push the cell package in the direction of the module cover in order to form a deformation space between the module floor and the cell package , a support device which extends between the module cover and the module floor being arranged within the module housing , and an upper support end of the support device being supported against the module cover or the cooling device , and a lower support end of the support device being supported against the spring device arranged between the module floor and the cell packages .
A sole constituting a part of footwear , the sole comprising: a shock-absorbing part provided at least in a rearfoot region (R2) located at a rear of the footwear in a longitudinal direction, the shock-absorbing part cushioning an impact applied to a heel of a foot upon landing; and a support part provided at least in a midfoot region (R3) located at a center of the footwear in the longitudinal direction, the support part being higher in rigidity than the shock-absorbing part and supporting a midfoot portion of the foot, wherein the support part includes a support surface , the support surface being provided forward of the shock-absorbing part and having a shape extending from one end to an other end of the footwear in a width direction, and the shock-absorbing part includes a recessed surface located at a height position lower than the support surface , and a plurality of columnar bodies each having a shape extending from the recessed surface to a height position identical in height to the support surface , characterised in that in a plan view of the columnar bodies , a largest dimension among dimensions of each of the columnar bodies in directions orthogonal to an axial direction of each of the columnar bodies is larger than a height dimension of each of the columnar bodies, and the height dimension of each of the columnar bodies is less than or equal to 30% of a thickness of the sole. a shock-absorbing part provided at least in a rearfoot region (R2) located at a rear of the footwear in a longitudinal direction, the shock-absorbing part cushioning an impact applied to a heel of a foot upon landing; and a support part provided at least in a midfoot region (R3) located at a center of the footwear in the longitudinal direction, the support part being higher in rigidity than the shock-absorbing part and supporting a midfoot portion of the foot, wherein the support part includes a support surface , the support surface being provided forward of the shock-absorbing part and having a shape extending from one end to an other end of the footwear in a width direction, and the shock-absorbing part includes a recessed surface located at a height position lower than the support surface , and a plurality of columnar bodies each having a shape extending from the recessed surface to a height position identical in height to the support surface , characterised in that in a plan view of the columnar bodies , a largest dimension among dimensions of each of the columnar bodies in directions orthogonal to an axial direction of each of the columnar bodies is larger than a height dimension of each of the columnar bodies, and the height dimension of each of the columnar bodies is less than or equal to 30% of a thickness of the sole.
An apparatus for diagnosing a companion animal (S) with radiation, comprising: a radiation irradiation unit configured to generate the radiation and irradiate the radiation toward the companion animal (S); a detector disposed to face the radiation irradiation unit and configured to detect the radiation irradiated from the radiation irradiation unit ; a driving unit configured to adjust positions of the radiation irradiation unit and the detector ; a sensor configured to sense a position of the companion animal (S); and a communication unit configured to communicate with an external device in a wireless manner, characterized in that the sensor includes a sensor provided in the space between the radiation irradiation unit and the detector and configured to sense a load and detect the position of the companion animal (S) and a sensor for sensing the presence of the companion animal (S) configured to determine whether the companion animal (S) is located between the radiation irradiation unit and the detector , the driving unit is configured to move the radiation irradiation unit and the detector to the point where the companion animal (S) is located based on the position of the companion animal (S) sensed by the load sensor , and the radiation irradiation unit is configured to automatically irradiate the radiation toward the companion animal (S) when the sensor for sensing the presence of the companion animal (S) senses that the companion animal (S) is located between the radiation irradiation unit and the detector . a radiation irradiation unit configured to generate the radiation and irradiate the radiation toward the companion animal (S); a detector disposed to face the radiation irradiation unit and configured to detect the radiation irradiated from the radiation irradiation unit ; a driving unit configured to adjust positions of the radiation irradiation unit and the detector ; a sensor configured to sense a position of the companion animal (S); and a communication unit configured to communicate with an external device in a wireless manner, characterized in that the sensor includes a sensor provided in the space between the radiation irradiation unit and the detector and configured to sense a load and detect the position of the companion animal (S) and a sensor for sensing the presence of the companion animal (S) configured to determine whether the companion animal (S) is located between the radiation irradiation unit and the detector , the driving unit is configured to move the radiation irradiation unit and the detector to the point where the companion animal (S) is located based on the position of the companion animal (S) sensed by the load sensor , and the radiation irradiation unit is configured to automatically irradiate the radiation toward the companion animal (S) when the sensor for sensing the presence of the companion animal (S) senses that the companion animal (S) is located between the radiation irradiation unit and the detector .
An accumulator comprising: a tank which is provided with an inflow port and an outflow port ; an outflow pipe of which one end side is connected to the outflow port and the other end side is opened inside the tank ; and a cap-shaped or inverted thin bowl shaped gas-liquid separator which is fixed and disposed below the inflow port to cover the other end side opening, characterised in that a rear surface of the gas-liquid separator is provided with a shock absorbing member formed of a porous body or an elastic body in order to reduce a shock applied to the gas-liquid separator in the event of bumping. a tank which is provided with an inflow port and an outflow port ; an outflow pipe of which one end side is connected to the outflow port and the other end side is opened inside the tank ; and a cap-shaped or inverted thin bowl shaped gas-liquid separator which is fixed and disposed below the inflow port to cover the other end side opening, characterised in that a rear surface of the gas-liquid separator is provided with a shock absorbing member formed of a porous body or an elastic body in order to reduce a shock applied to the gas-liquid separator in the event of bumping.
A process for producing a single stranded oligonucleotide product having at least one modified nucleotide residue, wherein the modification is selected from the group consisting of modification at the 2' position of the sugar moiety, modification of the nucleobase, and modification of the backbone, and wherein the product is produced at gram or kilogram scale, or greater, and/or the process is carried out in a 1 L or larger reactor, comprising: a) providing a template oligonucleotide (I) complementary to the sequence of the product, said template having properties that allow it to be separated from the product; b) providing a pool of oligonucleotides (II) containing oligonucleotides that are segments of the product sequence, wherein at least one segment contains at least one modified nucleotide residue and wherein the modification is selected from the group consisting of modification at the 2' position of the sugar moiety, modification of the nucleobase, and modification of the backbone; c) contacting (I) and (II) in conditions to allow annealing; d) joining the segment oligonucleotides by enzymatic ligation with a ligase to form the product; e) changing the conditions to separate any impurities, comprising denaturing the annealed template and impurity oligonucleotide strands and separating the impurities; f) changing the conditions to separate the product, comprising denaturing the annealed template and product oligonucleotide strands and separating the product; and g) recycling the template for use in future reactions. a) providing a template oligonucleotide (I) complementary to the sequence of the product, said template having properties that allow it to be separated from the product; b) providing a pool of oligonucleotides (II) containing oligonucleotides that are segments of the product sequence, wherein at least one segment contains at least one modified nucleotide residue and wherein the modification is selected from the group consisting of modification at the 2' position of the sugar moiety, modification of the nucleobase, and modification of the backbone; c) contacting (I) and (II) in conditions to allow annealing; d) joining the segment oligonucleotides by enzymatic ligation with a ligase to form the product; e) changing the conditions to separate any impurities, comprising denaturing the annealed template and impurity oligonucleotide strands and separating the impurities; f) changing the conditions to separate the product, comprising denaturing the annealed template and product oligonucleotide strands and separating the product; and g) recycling the template for use in future reactions.
Equipment for the control of biomedical devices during extracorporeal circulation, comprising: - at least one basic structure ; - control means assembled on said basic structure and provided with at least one control unit operationally connectable to at least one biomedical device for extracorporeal circulation and configured to control it; wherein said control means comprise at least one emergency control unit , operationally connectable to said biomedical device and configured to control the latter following a malfunction of said control unit ; wherein said control means comprise communication means between said control unit and said emergency control unit , said emergency control unit being configured to check the malfunction of said control unit and characterized in that said control unit is configured to check the malfunction of said emergency control unit during the correct operation of said control unit . - at least one basic structure ; - control means assembled on said basic structure and provided with at least one control unit operationally connectable to at least one biomedical device for extracorporeal circulation and configured to control it; wherein said control means comprise at least one emergency control unit , operationally connectable to said biomedical device and configured to control the latter following a malfunction of said control unit ; wherein said control means comprise communication means between said control unit and said emergency control unit , said emergency control unit being configured to check the malfunction of said control unit and characterized in that said control unit is configured to check the malfunction of said emergency control unit during the correct operation of said control unit .
Antioxidant composition characterized by - 30 to 40 mass% Aloe vera leaf gel; - 7 to 9 mass% of a sugar or a sweetener; - 30 to 40 mass% grape juice; - 0.2 to 0.5 mass% green tea extract; - 0.2 to 0.4 mass% xanthan gum; - 0.1 to 0.2 mass% of an L-carnitine compound; - 0.05 to 0.09 mass% of a vitamin mixture of vitamin B1, vitamin B9 (folic acid), vitamin B12 and vitamin E; - 0.05 to 0.09 mass% chlorophyll; - 0.05 to 0.09 mass% of an acidifying agent; - 0.02 to 0.035 mass% preservatives; - 0.01 to 0.03 mass% aroma; - 0.07 to 0.1 mass% Coenyzm Q10; - 0.003 to 0.06 mass% of an iron compound; - 0.01 to 0.015 mass% of a choline compound; - 0.007 to 0.01 mass% of a selenium compound, - 0.007 to 0.012 mass% of an extract of resveratrol, and - Residual water. - 30 to 40 mass% Aloe vera leaf gel; - 7 to 9 mass% of a sugar or a sweetener; - 30 to 40 mass% grape juice; - 0.2 to 0.5 mass% green tea extract; - 0.2 to 0.4 mass% xanthan gum; - 0.1 to 0.2 mass% of an L-carnitine compound; - 0.05 to 0.09 mass% of a vitamin mixture of vitamin B1, vitamin B9 (folic acid), vitamin B12 and vitamin E; - 0.05 to 0.09 mass% chlorophyll; - 0.05 to 0.09 mass% of an acidifying agent; - 0.02 to 0.035 mass% preservatives; - 0.01 to 0.03 mass% aroma; - 0.07 to 0.1 mass% Coenyzm Q10; - 0.003 to 0.06 mass% of an iron compound; - 0.01 to 0.015 mass% of a choline compound; - 0.007 to 0.01 mass% of a selenium compound, - 0.007 to 0.012 mass% of an extract of resveratrol, and - Residual water.
An isolated antibody, or antigen binding portion thereof, that (i) specifically binds to human CD40; and (ii) comprises a heavy chain having the amino acid sequence of SEQ ID No:7 and a light chain having the amino acid sequence of SEQ ID No:2. (i) specifically binds to human CD40; and (ii) comprises a heavy chain having the amino acid sequence of SEQ ID No:7 and a light chain having the amino acid sequence of SEQ ID No:2.
A perovskite material comprising an organic-inorganic perovskite structure of formula (I) A n MX 3 (I), wherein n is number of cation A and is an integer selected from 4 to 7, A is a monovalent cation selected from inorganic cations Ai and from organic cations Ao, wherein the inorganic cations Ai are independently selected from Li + , Na + , K + , Rb + , Cs + , or Tl + , and the organic cations Ao are independently selected from ammonium (NH 4 + ), methyl ammonium (MA) (CH 3 NH 3 + ), ethyl ammonium (CH 3 CH 2 NH 3 ) + , formamidinium (FA) (CH(NH 2 ) 2 + ), methylformamidinium (CH 3 C(NH 2 ) 2 + ), guanidium (C((NH) 2 ) 3 + ), tetramethylammonium ((CH 3 ) 4 N + ), dimethylammonium ((CH 3 ) 2 NH 2 + ) or trimethylammonium ((CH 3 ) 3 NH + ), M is selected from Cu 2+ , Ni 2+ , Co 2+ , Fe 2+ , Mn 2+ , Cr 2+ , Pd 2+ , Cd 2+ , Ge 2+ , Sn 2+ , Pb 2+ , Eu 2+ , Yb 2+ or a combination thereof, X is an anion independently selected from Br - , I - , Cl - , SCN - , CN - , NC - , OCN - , NCO - , NCS - , SeCN - , TeCN - , PF 6 - , BF 4 - or a combination thereof, and wherein at least one cation A is selected from organic cations Ao and one or more cations A are selected from inorganic cation Ai. n is number of cation A and is an integer selected from 4 to 7, A is a monovalent cation selected from inorganic cations Ai and from organic cations Ao, wherein the inorganic cations Ai are independently selected from Li + , Na + , K + , Rb + , Cs + , or Tl + , and the organic cations Ao are independently selected from ammonium (NH 4 + ), methyl ammonium (MA) (CH 3 NH 3 + ), ethyl ammonium (CH 3 CH 2 NH 3 ) + , formamidinium (FA) (CH(NH 2 ) 2 + ), methylformamidinium (CH 3 C(NH 2 ) 2 + ), guanidium (C((NH) 2 ) 3 + ), tetramethylammonium ((CH 3 ) 4 N + ), dimethylammonium ((CH 3 ) 2 NH 2 + ) or trimethylammonium ((CH 3 ) 3 NH + ), the inorganic cations Ai are independently selected from Li + , Na + , K + , Rb + , Cs + , or Tl + , and the organic cations Ao are independently selected from ammonium (NH 4 + ), methyl ammonium (MA) (CH 3 NH 3 + ), ethyl ammonium (CH 3 CH 2 NH 3 ) + , formamidinium (FA) (CH(NH 2 ) 2 + ), methylformamidinium (CH 3 C(NH 2 ) 2 + ), guanidium (C((NH) 2 ) 3 + ), tetramethylammonium ((CH 3 ) 4 N + ), dimethylammonium ((CH 3 ) 2 NH 2 + ) or trimethylammonium ((CH 3 ) 3 NH + ), M is selected from Cu 2+ , Ni 2+ , Co 2+ , Fe 2+ , Mn 2+ , Cr 2+ , Pd 2+ , Cd 2+ , Ge 2+ , Sn 2+ , Pb 2+ , Eu 2+ , Yb 2+ or a combination thereof, X is an anion independently selected from Br - , I - , Cl - , SCN - , CN - , NC - , OCN - , NCO - , NCS - , SeCN - , TeCN - , PF 6 - , BF 4 - or a combination thereof, and wherein at least one cation A is selected from organic cations Ao and one or more cations A are selected from inorganic cation Ai.
A method of making an antistatic article having an acrylic substrate, a conductive layer, and at least one of an outer layer and a series of layers, the method comprising: cleaning a surface of the acrylic substrate; sputtering the conductive layer onto the surface to a thickness ranging from 1 nanometer to 8 nanometers while supplying oxygen at a rate less than 175 SCCM; and sputtering the at least one of the outer layer and the series of layers atop the conductive layer, whererin the antistatic article exhibits a surface resistivity of less than 10 12 ohms/square. cleaning a surface of the acrylic substrate; sputtering the conductive layer onto the surface to a thickness ranging from 1 nanometer to 8 nanometers while supplying oxygen at a rate less than 175 SCCM; and sputtering the at least one of the outer layer and the series of layers atop the conductive layer, whererin the antistatic article exhibits a surface resistivity of less than 10 12 ohms/square.
An electric vehicle comprising a battery storage device, the battery storage device comprising: a casing to be coupled to a lower portion of a vehicle floor to accommodate a battery module therein, the casing including an air inlet into which air for cooling the battery module is introduced, and an air outlet from which air used to cool the battery module is discharged; an intake duct to be connected to an upper portion of the vehicle floor to communicate with the air inlet , the intake duct extending indoors to guide indoor air into the casing; and a discharge duct connected to communicate with the air outlet , the discharge duct extending indoors or outdoors at a position spaced apart from the intake duct to guide the air used to cool the battery module and thereby discharge the air to an outside of the casing, characterized in that the intake duct extends under a front seat (S1) to suction the indoor air, with an inlet port being formed in the intake duct to suction the indoor air, and the intake duct extends under the front seat (S1) to be higher than the floor , so that the inlet port is positioned above the floor to be spaced apart therefrom, and in that the intake duct comprises a cover portion that is located above the inlet port to be spaced apart therefrom and is formed to have an area sufficient to cover the inlet port, so that air is introduced between the inlet port and the cover portion. a casing to be coupled to a lower portion of a vehicle floor to accommodate a battery module therein, the casing including an air inlet into which air for cooling the battery module is introduced, and an air outlet from which air used to cool the battery module is discharged; an intake duct to be connected to an upper portion of the vehicle floor to communicate with the air inlet , the intake duct extending indoors to guide indoor air into the casing; and a discharge duct connected to communicate with the air outlet , the discharge duct extending indoors or outdoors at a position spaced apart from the intake duct to guide the air used to cool the battery module and thereby discharge the air to an outside of the casing, characterized in that the intake duct extends under a front seat (S1) to suction the indoor air, with an inlet port being formed in the intake duct to suction the indoor air, and the intake duct extends under the front seat (S1) to be higher than the floor , so that the inlet port is positioned above the floor to be spaced apart therefrom, and in that the intake duct comprises a cover portion that is located above the inlet port to be spaced apart therefrom and is formed to have an area sufficient to cover the inlet port, so that air is introduced between the inlet port and the cover portion.
A method of operating a master radio access network, RAN, node in a wireless communication network, the method comprising: transmitting , to a secondary RAN node, a secondary RAN node addition or modification request message to request preparation or modification of resources for dual connectivity communication for a wireless terminal, wherein resource coordination information is included as an information element of the secondary RAN node addition or modification request message and defines at least one communication resource that is available for a wireless terminal to use for sidelink communication.