mhurhangee/ep-ind-claims huggingface dataset:
A bacterial cell expressing an amino acid-N-acyl-transferase, and an acyl-CoA synthetase, wherein the cell has a deleted, or inactivated gene encoding an enzyme involved in the β-oxidation pathway that results in a reduced fatty acid degradation capacity of the cell, wherein the enzyme involved in the β-oxidation pathway is selected from the group comprising acyl-CoA dehydrogenase, 2,4-dienoyl-CoA reductase, enoyl-CoA hydratase and 3-ketoacyl-CoA thiolase, and the amino acid-N-acyl-transferase is capable of catalysing the conversion of acyl-CoA and an amino acid to an acyl amino acid.
An iron-based sintered body comprising a metal matrix and complex oxide particles contained in the metal matrix, wherein, when a main viewing field having an area of 176 μm × 226 μm is taken on a cross section of the iron-based sintered body and divided into a 5 × 5 array of 25 viewing fields each having an area of 35.2 μm × 45.2 μm, the complex oxide particles have an average equivalent circle diameter of from 0.3 μm to 2.5 μm inclusive, a value obtained by dividing the total area of the 25 viewing fields by the total number of complex oxide particles present in the 25 viewing fields is from 10 μm 2 /particle to 1,000 μm 2 /particle inclusive, the number of viewing fields in which no complex oxide particle is present is 4 or less out of the 25 viewing fields, and the complex oxide contains Si, Al, Ca, and O as essential elements and further contains at least one element selected from B, Mg, Na, Mn, Sr, Ti, Ba, and Zn.
Energy recovering assembly for extraction of electric power, comprising a first array of tubes each adapted to receive a flow of a hot fluid between a first inlet manifold and a first outlet manifold, and a second array of tubes, each adapted to receive a flow of a cold fluid between a second inlet manifold and a second outlet manifold, wherein the tubes of the first array are interdigitated with the tubes of the second array, such that two tubes of the second array are arranged between two successive tubes of the first array, or such that two tubes of the first array are arranged between two successive tubes of the second array, and wherein the energy recovering assembly further comprises thermo electric modules in sub-interspaces (Y') between adjacent tubes (6, 13) of the first and second arrays, and fixation arrangements in interspaces between said two tubes of the second array being arranged between two successive tubes of the first array, or in the interspaces between said two tubes of the first array being arranged between two successive tubes of the second array, whereby each fixation arrangement is operable between a first state allowing the fixation arrangement to be inserted in the associated interspace, and a second state in which the fixation arrangement is adapted to exert a pressure on the two tubes (6; 13) in the associated interspace, forcing said two tubes of the second array arranged between the successive tubes of the first array, or said two tubes of the first array arranged between the successive tubes of the second array, towards the respective thermo electric modules and towards the successive tubes (6; 13) adjacent the respective thermoelectric modules, providing a contact between the thermo electric modules and the adjacent tubes (6; 13) of the first and second arrays.
A method for controlling a point-to-multipoint "PTM" transmission of content data in a PTM-enabled mobile network, comprising the following steps: - receiving redundancy data (151, 152) at a dedicated redundancy data storage (134, 136) in a radio access network of the PTM-enabled mobile network over which the PTM transmission of the content data is performed, wherein the redundancy data (151, 152) are provided for a correction of transmission errors in the content data resulting from the transmission of the content data without the redundancy data over one or more radio interfaces (124, 126, 128) defining cells of the radio access network and wherein the redundancy data (151, 152) are determined by applying a predetermined FEC algorithm; - storing the received redundancy data (151, 152) in the redundancy data storage (134, 136), - receiving a request for redundancy data from a redundancy data control node (108 - 116) and - responding to the redundancy data request by providing at least a portion of the redundancy data (151, 152), wherein a content data flow and a redundant data flow are originating from a PTM transmission control node located in a core network of a PTM enabled mobile network and are separated and wherein the content data flow is directed towards the receiving devices (130, 132) and wherein the redundancy data flow is directed towards the redundancy data storages (134, 136), so that the redundancy data storages (134, 136) do not store content data - receiving redundancy data (151, 152) at a dedicated redundancy data storage (134, 136) in a radio access network of the PTM-enabled mobile network over which the PTM transmission of the content data is performed, wherein the redundancy data (151, 152) are provided for a correction of transmission errors in the content data resulting from the transmission of the content data without the redundancy data over one or more radio interfaces (124, 126, 128) defining cells of the radio access network and wherein the redundancy data (151, 152) are determined by applying a predetermined FEC algorithm; - storing the received redundancy data (151, 152) in the redundancy data storage (134, 136), - receiving a request for redundancy data from a redundancy data control node (108 - 116) and - responding to the redundancy data request by providing at least a portion of the redundancy data (151, 152), wherein a content data flow and a redundant data flow are originating from a PTM transmission control node located in a core network of a PTM enabled mobile network and are separated and wherein the content data flow is directed towards the receiving devices (130, 132) and wherein the redundancy data flow is directed towards the redundancy data storages (134, 136), so that the redundancy data storages (134, 136) do not store content data
A recombinant factor VIII fusion protein comprising a factor VIII polypeptide and at least one extended recombinant polypeptide (XTEN), wherein the factor VIII polypeptide comprises an A3 domain, an A2 domain, an A1 domain, a C2 domain, a C1 domain, and a B domain or a portion of the B domain, wherein the at least one XTEN is inserted into the factor VIII polypeptide at a site that corresponds to amino acid 745 of the sequence set forth in SEQ ID NO:1592, wherein the recombinant FVIII fusion protein retains at least 10% of the procoagulant activity of a corresponding factor VIII polypeptide lacking said XTEN, and wherein the recombinant FVIII fusion protein exhibits a prolonged terminal half-life when administered to a subject as compared to a corresponding factor VIII polypeptide lacking said XTEN.
A method of preventing bacterial growth in a beverage dispensing system, said method comprising the steps of: providing said beverage dispensing system comprising a tapping cock and a tapping line connected at its first end to said tapping cock and having at its opposite second end a tapping line connector, said tapping line connector having a tapping valve actuator operable between a beverage dispensing position and a non-beverage dispensing position and defining a first connector surface, providing a beverage container filled with a beverage preferably being a carbonated beverage, said beverage container having a container connector defining a second connector surface and an initially sealed container opening, said second connector surface being covered with a bacteriostatic agent, said bacteriostatic agent being in solid state or gel state, said container connector being connectable to said tapping line connector by contacting said first and second connector surfaces with one another, connecting said tapping line connector to said container connector and in doing so transferring a part of said bacteriostatic agent from said second connector surface to said first connector surface by contacting said first and second connector surfaces with one another, and operating said tapping valve actuator from said non-beverage dispensing position to said beverage dispensing position and in doing so establishing fluid communication from the interior of said beverage container via said opening and said tapping line to said tapping cock. providing said beverage dispensing system comprising a tapping cock and a tapping line connected at its first end to said tapping cock and having at its opposite second end a tapping line connector, said tapping line connector having a tapping valve actuator operable between a beverage dispensing position and a non-beverage dispensing position and defining a first connector surface, providing a beverage container filled with a beverage preferably being a carbonated beverage, said beverage container having a container connector defining a second connector surface and an initially sealed container opening, said second connector surface being covered with a bacteriostatic agent, said bacteriostatic agent being in solid state or gel state, said container connector being connectable to said tapping line connector by contacting said first and second connector surfaces with one another, connecting said tapping line connector to said container connector and in doing so transferring a part of said bacteriostatic agent from said second connector surface to said first connector surface by contacting said first and second connector surfaces with one another, and operating said tapping valve actuator from said non-beverage dispensing position to said beverage dispensing position and in doing so establishing fluid communication from the interior of said beverage container via said opening and said tapping line to said tapping cock.
A method for providing communications at an interworking gateway, comprising: receiving, from a first user equipment, UE, in a first network, a data rate adjustment request, wherein the data rate adjustment request is provided from the first UE responsive to receipt of an explicit congestion notification, ECN, marking in a first set of media provided from a second UE in a second network; and processing the data rate adjustment request, wherein processing the data rate adjustment request comprises: determining if the second UE can accommodate the data rate adjustment request; if determined that the second UE can accommodate the data rate adjustment request, translating the data rate adjustment request to a translated data rate adjustment request that the second UE can understand and forwarding the translated data rate adjustment request to the second UE; if it cannot be determined whether the second UE can accommodate the data rate adjustment request, transcoding a second set of received media received from the second UE consistent with the data rate adjustment request. receiving, from a first user equipment, UE, in a first network, a data rate adjustment request, wherein the data rate adjustment request is provided from the first UE responsive to receipt of an explicit congestion notification, ECN, marking in a first set of media provided from a second UE in a second network; and processing the data rate adjustment request, wherein processing the data rate adjustment request comprises: determining if the second UE can accommodate the data rate adjustment request; if determined that the second UE can accommodate the data rate adjustment request, translating the data rate adjustment request to a translated data rate adjustment request that the second UE can understand and forwarding the translated data rate adjustment request to the second UE; if it cannot be determined whether the second UE can accommodate the data rate adjustment request, transcoding a second set of received media received from the second UE consistent with the data rate adjustment request. determining if the second UE can accommodate the data rate adjustment request; if determined that the second UE can accommodate the data rate adjustment request, translating the data rate adjustment request to a translated data rate adjustment request that the second UE can understand and forwarding the translated data rate adjustment request to the second UE; if it cannot be determined whether the second UE can accommodate the data rate adjustment request, transcoding a second set of received media received from the second UE consistent with the data rate adjustment request.
A method of analyzing buffer pH in soil, the method comprising: a) obtaining a soil sample; b) adding a liquid comprising a surfactant to the soil sample to form a soil slurry; c) flowing the soil slurry through a filter to form a filtrate; d) blending an indicator composition with the filtrate to form a soil mixture; and e) flowing the soil mixture through an analysis tool along a flow direction that is substantially orthogonal to the direction of gravity, whereby a pH value of the soil mixture is measured. a) obtaining a soil sample; b) adding a liquid comprising a surfactant to the soil sample to form a soil slurry; c) flowing the soil slurry through a filter to form a filtrate; d) blending an indicator composition with the filtrate to form a soil mixture; and e) flowing the soil mixture through an analysis tool along a flow direction that is substantially orthogonal to the direction of gravity, whereby a pH value of the soil mixture is measured.
An air interface synchronization method, comprising: selecting a Mobile Station, MS, capable of sending the same signal to two Base Stations, BSs; receiving, by two Base Stations, BSs, a same signal from the MS; recording time of receiving the signal, by the two BSs, and reporting the signal receiving time to a Base Station Controller, BSC; calculating, by the BSC, an air interface offset between the two BSs according to the signal receiving time reported by the two BSs; obtaining, by one of the two BSs, the air interface offset between the two BSs delivered by the BSC; and synchronizing, by the BS which obtained the air interface offset, air interfaces of the two BSs according to the air interface offset between the two BSs. selecting a Mobile Station, MS, capable of sending the same signal to two Base Stations, BSs; receiving, by two Base Stations, BSs, a same signal from the MS; recording time of receiving the signal, by the two BSs, and reporting the signal receiving time to a Base Station Controller, BSC; calculating, by the BSC, an air interface offset between the two BSs according to the signal receiving time reported by the two BSs; obtaining, by one of the two BSs, the air interface offset between the two BSs delivered by the BSC; and synchronizing, by the BS which obtained the air interface offset, air interfaces of the two BSs according to the air interface offset between the two BSs.
Polyglycerol partial ester obtainable by esterification of a polyglycerol with a carboxylic acid mixture comprising: a) at least one short-chain dicarboxylic acid having 2 to 12, preferably 3 to 8, particularly preferably 4 carbon atoms, and b) at least one saturated fatty acid having 6 to 14, preferably 8 to 10 carbon atoms, characterized in that the molar ratio of polyglycerol to dicarboxylic acid to saturated fatty acid is in a ratio of from 3.1: 1.0: 0.5 to 14: 1.0: 6.0, preferably from 3.3: 1.0: 0.7 to 7.0: 1.0: 3.0. a) at least one short-chain dicarboxylic acid having 2 to 12, preferably 3 to 8, particularly preferably 4 carbon atoms, and b) at least one saturated fatty acid having 6 to 14, preferably 8 to 10 carbon atoms,
A compressor comprising a stationary scroll and a movable scroll which is intermeshed with said stationary scroll, wherein said movable scroll is pressed toward said stationary scroll, said compressor further comprising: a high pressure fluid introducing passageway including an outlet part by which fluid from high pressure fluid supplying means is discharged to a thrust bearing between an end plate of said stationary scroll and an end plate of said movable scroll, wherein a flow rate controlling member is inserted into said high pressure fluid introducing passageway, characterized in that said flow rate controlling member includes a leading-end side main body located inside said high pressure fluid introducing passageway and is provided with a spiral passageway formed on the outer periphery thereof, and a smaller diameter part formed consecutively to said main body and arranged correspondingly to said outlet part. a high pressure fluid introducing passageway including an outlet part by which fluid from high pressure fluid supplying means is discharged to a thrust bearing between an end plate of said stationary scroll and an end plate of said movable scroll, wherein a flow rate controlling member is inserted into said high pressure fluid introducing passageway, characterized in that said flow rate controlling member includes a leading-end side main body located inside said high pressure fluid introducing passageway and is provided with a spiral passageway formed on the outer periphery thereof, and a smaller diameter part formed consecutively to said main body and arranged correspondingly to said outlet part.
Method for monitoring the function of a sensor for detecting soot particles in an exhaust gas, wherein the sensor has at least two measuring electrodes (20, 22), which are exposed to the exhaust gas and which are spaced apart from one another, and a surface on which the measuring electrodes (20, 22) are arranged, and an electrical resistance heater for burning the soot particles accumulated on the measuring electrodes (20, 22) and on the surface, and in particular also has a temperature measuring device for determining the temperature of the sensor, wherein the method comprises the following steps: - heating the sensor using the resistance heater so that soot particles accumulated on the measuring electrodes (20, 22) and on the surface burn; then - waiting for a certain period of time or waiting until the sensor has cooled down to a switch-on temperature, for example to 425°C; then - applying a voltage between the measuring electrodes (20, 22) and determining a first current flow through the measuring electrodes (20, 22); then - determining a waiting time from the first current flow, wherein the greater the first current flow, the greater the value determined for the waiting time; then - waiting for the waiting time, wherein the sensor continues to cool down; then - applying a voltage between the measuring electrodes (20, 22) and determining a second current flow through the measuring electrodes (20, 22); then - evaluating that the sensor element is in order if the second current flow is lower than a threshold value, for example 5 μA, and evaluating that the sensor is defective if the second current flow is greater than the threshold value. - heating the sensor using the resistance heater so that soot particles accumulated on the measuring electrodes (20, 22) and on the surface burn; then - waiting for a certain period of time or waiting until the sensor has cooled down to a switch-on temperature, for example to 425°C; then - applying a voltage between the measuring electrodes (20, 22) and determining a first current flow through the measuring electrodes (20, 22); then - determining a waiting time from the first current flow, wherein the greater the first current flow, the greater the value determined for the waiting time; then - waiting for the waiting time, wherein the sensor continues to cool down; then - applying a voltage between the measuring electrodes (20, 22) and determining a second current flow through the measuring electrodes (20, 22); then - evaluating that the sensor element is in order if the second current flow is lower than a threshold value, for example 5 μA, and evaluating that the sensor is defective if the second current flow is greater than the threshold value.
A cooking hob with illumination equipment, wherein: - the cooking hob includes at least one transparent or semi-transparent panel arranged at a top side of said cooking hob, - the cooking hob includes at least one frame enclosing at least partially the panel, - a plurality of lighting elements is arranged within the frame and beside a narrow side of the panel, - the frame comprises at least one opening on at least one inner side of said frame, - so that the cooking hob and/or the environment above said cooking hob are illuminated out of the frame, - the frame comprises at least partially a U-shaped cross-section, and - the open side of said U-shaped cross-section is arranged at the inner side or inner sides of the frame, characterized in, that the panel extends over the top side of the cooking hob and includes at least one heating zone, wherein the panel comprises at least one reflective layer on the lower side of said panel. - the cooking hob includes at least one transparent or semi-transparent panel arranged at a top side of said cooking hob, - the cooking hob includes at least one frame enclosing at least partially the panel, - a plurality of lighting elements is arranged within the frame and beside a narrow side of the panel, - the frame comprises at least one opening on at least one inner side of said frame, - so that the cooking hob and/or the environment above said cooking hob are illuminated out of the frame, - the frame comprises at least partially a U-shaped cross-section, and - the open side of said U-shaped cross-section is arranged at the inner side or inner sides of the frame,