mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for embedding substantially rectangular swappable circuit cards within an electronics system, comprising: a chassis comprising a centralized heatsink and slots for holding four substantially rectangular swappable circuit cards around the heatsink , characterized in that the heatsink is shaped as a substantially rectangular parallelepiped body, wherein two opposite sides are open to allow flow of a cooling fluid through the heatsink and wherein on each of the other four sides of the heatsink are arranged slots, wherein each of said four slots comprises a card rail module including a pair of card rails in a spaced facing relationship for holding a swappable substantially rectangular circuit card therebetween, such that in each of said slots a swappable substantially rectangular circuit card can be slid in, guided by said card rails in a direction parallel to the outer surface of the heatsink corresponding to said slot, and wherein, after a substantially rectangular swappable circuit card has been slidably inserted into the slot, a major surface of said substantially rectangular swappable card makes contact over a contact area with the outer surface of the heatsink that is corresponding to the slot wherein it has been inserted such that heat generated by the swappable card can be transferred to the heatsink over said contact area. a chassis comprising a centralized heatsink and slots for holding four substantially rectangular swappable circuit cards around the heatsink , characterized in that the heatsink is shaped as a substantially rectangular parallelepiped body, wherein two opposite sides are open to allow flow of a cooling fluid through the heatsink and wherein on each of the other four sides of the heatsink are arranged slots, wherein each of said four slots comprises a card rail module including a pair of card rails in a spaced facing relationship for holding a swappable substantially rectangular circuit card therebetween, such that in each of said slots a swappable substantially rectangular circuit card can be slid in, guided by said card rails in a direction parallel to the outer surface of the heatsink corresponding to said slot, and wherein, after a substantially rectangular swappable circuit card has been slidably inserted into the slot, a major surface of said substantially rectangular swappable card makes contact over a contact area with the outer surface of the heatsink that is corresponding to the slot wherein it has been inserted such that heat generated by the swappable card can be transferred to the heatsink over said contact area.
A method of determining a corrected wind speed in the region of a wind turbine including the steps: - measuring a wind speed in the region of a wind turbine , - determining a force exerted on at least one rotor blade by the wind, - determining a wind speed difference value which is dependent on the determined force , and - determining a corrected wind speed by correcting the measured wind speed in dependence on the wind speed difference value , wherein measurement of the wind speed is effected at a first distance windward of the wind turbine or at a first position, and the operation of determining the wind speed difference value is additionally effected in dependence on the first distance or the first position, wherein the method additionally includes establishing a second distance at the windward side of the wind turbine or a second position at which the corrected wind speed is to be determined, and the operation of determining the wind speed difference value is additionally effected in dependence on the second distance or the second position and wherein the second distance is defined as a windward distance or the second position in a region outside a near field region of the wind turbine , wherein the near field region is preferably defined as the region which is within a radius around the wind turbine , that corresponds to the diameter of the rotor of the wind turbine , double the diameter of the rotor of the wind turbine or two and a half times the diameter of the rotor of the wind turbine . - measuring a wind speed in the region of a wind turbine , - determining a force exerted on at least one rotor blade by the wind, - determining a wind speed difference value which is dependent on the determined force , and - determining a corrected wind speed by correcting the measured wind speed in dependence on the wind speed difference value , wherein measurement of the wind speed is effected at a first distance windward of the wind turbine or at a first position, and the operation of determining the wind speed difference value is additionally effected in dependence on the first distance or the first position, wherein the method additionally includes establishing a second distance at the windward side of the wind turbine or a second position at which the corrected wind speed is to be determined, and the operation of determining the wind speed difference value is additionally effected in dependence on the second distance or the second position and wherein the second distance is defined as a windward distance or the second position in a region outside a near field region of the wind turbine , wherein the near field region is preferably defined as the region which is within a radius around the wind turbine , that corresponds to the diameter of the rotor of the wind turbine , double the diameter of the rotor of the wind turbine or two and a half times the diameter of the rotor of the wind turbine .
A refrigerator , comprising: a cabinet having a storage compartment ; a door for closing the storage compartment ; a drawer located inside the storage compartment , a gap (G) being provided in a vertical direction between a front wall of the drawer and a top wall of the storage compartment ; and a cold air outlet disposed cold air between the drawer and the top wall in the vertical direction; a cold air blocking portion located between the cold air outlet and the door , wherein the cold air blocking portion at least partially covers the gap (G) in a front-rear direction, characterized in that the cold air blocking portion includes a part of an inner liner of the cabinet and is directly integrated on a wall of the cabinet, and the cold air blocking portion and the front wall of the drawer overlap in a front-rear direction. a cabinet having a storage compartment ; a door for closing the storage compartment ; a drawer located inside the storage compartment , a gap (G) being provided in a vertical direction between a front wall of the drawer and a top wall of the storage compartment ; and a cold air outlet disposed cold air between the drawer and the top wall in the vertical direction; a cold air blocking portion located between the cold air outlet and the door , wherein the cold air blocking portion at least partially covers the gap (G) in a front-rear direction, characterized in that the cold air blocking portion includes a part of an inner liner of the cabinet and is directly integrated on a wall of the cabinet, and the cold air blocking portion and the front wall of the drawer overlap in a front-rear direction.
A computer-implemented method in a Version Control System, VCS, the method comprising: identifying a first merge base at a trunk , the first merge base merging with a branch of the trunk, wherein the trunk and the branch are part of a tree of the VCS; identifying , at the branch, a second merge base , subsequent to the first merge base, the second merge base merging with the trunk; detecting a break at the trunk in response to the second merge base merging with the trunk; performing a revert commit function at the trunk in response to detecting the break, said revert function commit being performed to remove the changes of the second merge base to the trunk; forming a merge base patch branch from the branch at the second merge base, the merge base patch branch including a copy of the first merge base ; merging the merge base patch branch with the trunk; and merging the merge base patch branch with the branch. identifying a first merge base at a trunk , the first merge base merging with a branch of the trunk, wherein the trunk and the branch are part of a tree of the VCS; identifying , at the branch, a second merge base , subsequent to the first merge base, the second merge base merging with the trunk; detecting a break at the trunk in response to the second merge base merging with the trunk; performing a revert commit function at the trunk in response to detecting the break, said revert function commit being performed to remove the changes of the second merge base to the trunk; forming a merge base patch branch from the branch at the second merge base, the merge base patch branch including a copy of the first merge base ; merging the merge base patch branch with the trunk; and merging the merge base patch branch with the branch.
Cooking system comprising at least one control device , at least one extractor hood device , at least one kitchen utensil and at least one hob device , the extractor hood device comprising at least one movable vapour screen device having at least one suction opening in operative connection with at least one fan device , the hob device comprising at least one support device for placing kitchen utensils on and at least one heating device for heating up kitchen utensils , and the vapour screen device being movable into at least two operating positions each having at least one different extension height , characterised in that the kitchen utensil comprises at least one transmitting/receiving device which is suitable and designed for transmitting at least one signal having at least one identification signature to at least the control device , by means of which the at least one kitchen utensil can be identified, and the control device comprises a communications device , the at least one kitchen utensil transmits at least one signal having at least one identification signature to the control device and the control device determines the identity of the at least one kitchen utensil by means of the at least one identification signature and the control device automatically moves the vapour screen device into the operating position assigned to the identity of the kitchen utensil , at least one operating position assigned to the identity of a kitchen utensil being stored in the control device . at least one control device , at least one extractor hood device , at least one kitchen utensil and at least one hob device , the extractor hood device comprising at least one movable vapour screen device having at least one suction opening in operative connection with at least one fan device , the hob device comprising at least one support device for placing kitchen utensils on and at least one heating device for heating up kitchen utensils , and the vapour screen device being movable into at least two operating positions each having at least one different extension height , characterised in that the kitchen utensil comprises at least one transmitting/receiving device which is suitable and designed for transmitting at least one signal having at least one identification signature to at least the control device , by means of which the at least one kitchen utensil can be identified, and the control device comprises a communications device , the at least one kitchen utensil transmits at least one signal having at least one identification signature to the control device and the control device determines the identity of the at least one kitchen utensil by means of the at least one identification signature and the control device automatically moves the vapour screen device into the operating position assigned to the identity of the kitchen utensil , at least one operating position assigned to the identity of a kitchen utensil being stored in the control device .
A process for the production of hydrogen, comprising a step of reforming a carbon-containing feedstock to obtain a raw hydrogen reformed stream; a step of separating the raw hydrogen reformed stream to increment the concentration of hydrogen and separate a high concentration hydrogen from a recovered gas stream; a step of recirculating a portion of the high concentration hydrogen produced in the separating step to the reforming step together with a steam flow; wherein a high concentration hydrogen stream produced in the separating step is recirculated to the reforming step such that the hydrogen entering into the reforming step is greater of or equal to 50 mol% with respect to the feedstock to be reformed.
A method of measuring a magnetic field within a magnetic resonance imaging system , wherein the magnetic resonance imaging system comprises a magnet for providing an imaging zone , wherein the magnetic resonance imaging system further comprises a radio-frequency transceiver , wherein the magnetic resonance imaging system further comprises a magnetic field probe , and wherein the field probe is located within the imaging zone, wherein the magnetic field probe comprises a fluorine sample , wherein the field probe further comprises an antenna for manipulating the magnetic spins of the fluorine sample and for receiving fluorine magnetic resonance data from the fluorine sample, and wherein the antenna is connected to the radio-frequency transceiver, wherein the method comprises the steps of: - acquiring the fluorine magnetic resonance data using the magnetic resonance imaging system; and - calculating a magnetic field strength using the fluorine magnetic resonance data; characterized in that the fluorine sample comprises a fluoroelastomer . - acquiring the fluorine magnetic resonance data using the magnetic resonance imaging system; and - calculating a magnetic field strength using the fluorine magnetic resonance data;
A sample tube transport apparatus , comprising: a sample tube container ; a sample tube spinner ; a load unit configured to, before NMR measurement is performed with respect to a sample inside a sample tube, jet a load gas to a first position (P1) in a pathway between the sample tube container and the sample tube spinner , and thereby generate a first gas stream that transports the sample tube from the sample tube container to the sample tube spinner ; and an eject unit configured to, after NMR measurement is performed with respect to the sample, jet an eject gas to a second position (P2) in the pathway, and thereby generate a second gas stream that transports the sample tube from the sample tube spinner to the sample tube container , wherein the load unit includes a first slit (G1) which has a first outlet oriented toward the sample tube spinner and through which the load gas is jetted into the pathway, the eject unit includes a second slit (G2) which has a second outlet oriented toward the sample tube container and through which the eject gas is jetted into the pathway, each of the first slit (G1) and the second slit (G2) is a cone-shaped slit, and each of the first outlet and the second outlet is an annular outlet. a sample tube container ; a sample tube spinner ; a load unit configured to, before NMR measurement is performed with respect to a sample inside a sample tube, jet a load gas to a first position (P1) in a pathway between the sample tube container and the sample tube spinner , and thereby generate a first gas stream that transports the sample tube from the sample tube container to the sample tube spinner ; and an eject unit configured to, after NMR measurement is performed with respect to the sample, jet an eject gas to a second position (P2) in the pathway, and thereby generate a second gas stream that transports the sample tube from the sample tube spinner to the sample tube container , wherein the load unit includes a first slit (G1) which has a first outlet oriented toward the sample tube spinner and through which the load gas is jetted into the pathway, the eject unit includes a second slit (G2) which has a second outlet oriented toward the sample tube container and through which the eject gas is jetted into the pathway, each of the first slit (G1) and the second slit (G2) is a cone-shaped slit, and each of the first outlet and the second outlet is an annular outlet.
A conical or cylindrical segment comprising: a continuous strip of metal in a curved form having an edge-to-edge abutting relationship of a first edge region and a second edge region of the continuous strip of metal along a spiral joint ; the segment characterized in that it further comprises a first set of tick marks along the first edge region ; and a second set of tick marks along the second edge region , each tick mark in the first set of tick marks along the first edge region aligned with a respective tick mark in the second set of tick marks along the second edge region to within a predetermined tolerance. a continuous strip of metal in a curved form having an edge-to-edge abutting relationship of a first edge region and a second edge region of the continuous strip of metal along a spiral joint ; the segment characterized in that it further comprises a first set of tick marks along the first edge region ; and a second set of tick marks along the second edge region , each tick mark in the first set of tick marks along the first edge region aligned with a respective tick mark in the second set of tick marks along the second edge region to within a predetermined tolerance.
A process of treating a turbine component after service, the turbine component comprising an article and a wear component brazed to the article , the process comprising: applying a braze tape on at least a portion of the wear component , wherein the wear component is a pre-sintered preform; and thermal processing the turbine component while the braze tape is on the at least a portion of the wear component to treat the turbine component ; characterized in that the article is a shrouded blade and the pre-sintered preform is located on a z-notch of the shrouded blade. applying a braze tape on at least a portion of the wear component , wherein the wear component is a pre-sintered preform; and thermal processing the turbine component while the braze tape is on the at least a portion of the wear component to treat the turbine component ; characterized in that the article is a shrouded blade and the pre-sintered preform is located on a z-notch of the shrouded blade.
A security tag having a pattern of inimitable biological particles , characterized in that the biological particles are directly transferred from an organism to a transparent adhesive layer on a substrate , retaining their original physical characteristics and spatial arrangement, and covered with a transparent superstrate , such that said biological particles are encapsulated between said substrate and said superstrate .
A downhole tool, comprising: a tool body ; and a movable component comprising a cutter block of a reamer movably positionable about the tool body and configured to move along the tool body between a first position and a second position so as to move between an extended or a retracted position, the cutter block carrying a position sensor adapted to communicate with a reference positioned in the tool body and at least one further sensor adapted to take wellsite measurements, the cutter block housing electronics electrically connected to the sensors to receive measurements from the sensors, wherein the wellsite measurements are usable to determine wellsite parameters, and the output of the position sensor includes an indication of whether the cutter block is in the extended position, or in the retracted position. a tool body ; and a movable component comprising a cutter block of a reamer movably positionable about the tool body and configured to move along the tool body between a first position and a second position so as to move between an extended or a retracted position, the cutter block carrying a position sensor adapted to communicate with a reference positioned in the tool body and at least one further sensor adapted to take wellsite measurements, the cutter block housing electronics electrically connected to the sensors to receive measurements from the sensors, wherein the wellsite measurements are usable to determine wellsite parameters, and the output of the position sensor includes an indication of whether the cutter block is in the extended position, or in the retracted position.
A computer-implemented method for determining whether or not a subject is likely to respond to a checkpoint blockade therapy, the method comprising: accessing expression data for the subject; using the expression data to determine expression levels, in the subject, for at least three genes; and determining, using the determined expression levels and a statistical model trained using expression data indicating expression levels for a plurality of genes for a plurality of subjects, whether or not the subject is likely to respond to the checkpoint blockade therapy, wherein the checkpoint blockade therapy is a PD1 inhibitor and/or a CTLA4 inhibitor; characterized in that the at least three genes are selected from the set of predictor genes consisting of BRAF, ACVR1B, MPRIP, PRKAG1, STX2, AGPAT3, FYN, CMIP, ROBO4, RAB40C, HAUS8, SNAP23, SNX6, ACVR1B, MPRIP, COPS3, NLRX1, ELAC2, MON1B, ARF3, ARPIN, SPRYD3, FLI1, TIRAP, GSE1, POLR3K, PIGO, MFHAS1, NPIPA1, DPH6, ERLIN2, CES2, LHFP, NAIF1, ALCAM, SYNE1, SPINT1, SMTN, SLCA46A1, SAP25, WISP2, TSTD1, NLRX1, NPIPA1, HIST1H2AC, FUT8, FABP4, ERBB2, TUBA1A, XAGE1E, SERPINF1, RAI14, SIRPA, MT1X, NEK3, TGFB3, USP13, HLA-DRB4, IGF2, and MICAL1; and the statistical model includes variables representing ratios of gene expression levels for pairs of the predictor genes. accessing expression data for the subject; using the expression data to determine expression levels, in the subject, for at least three genes; and determining, using the determined expression levels and a statistical model trained using expression data indicating expression levels for a plurality of genes for a plurality of subjects, whether or not the subject is likely to respond to the checkpoint blockade therapy, wherein the checkpoint blockade therapy is a PD1 inhibitor and/or a CTLA4 inhibitor; characterized in that the at least three genes are selected from the set of predictor genes consisting of BRAF, ACVR1B, MPRIP, PRKAG1, STX2, AGPAT3, FYN, CMIP, ROBO4, RAB40C, HAUS8, SNAP23, SNX6, ACVR1B, MPRIP, COPS3, NLRX1, ELAC2, MON1B, ARF3, ARPIN, SPRYD3, FLI1, TIRAP, GSE1, POLR3K, PIGO, MFHAS1, NPIPA1, DPH6, ERLIN2, CES2, LHFP, NAIF1, ALCAM, SYNE1, SPINT1, SMTN, SLCA46A1, SAP25, WISP2, TSTD1, NLRX1, NPIPA1, HIST1H2AC, FUT8, FABP4, ERBB2, TUBA1A, XAGE1E, SERPINF1, RAI14, SIRPA, MT1X, NEK3, TGFB3, USP13, HLA-DRB4, IGF2, and MICAL1; and the statistical model includes variables representing ratios of gene expression levels for pairs of the predictor genes.
Feeding bottle comprising a refillable hollow bottle body, which forms a bottle base and comprises an outer thread over a bottle neck for screwing on or fitting a teat, containing a dye change indicator for a temperature greater than 20 degrees Celsius, consisting of an imprint integrated in the bottle surface, characterized in that the dye change indicator is obtained from a composition comprising: i.) 10-30 wt.% oligomers selected from the group of polyurethane, polyester, epoxy and polyether acrylates or methacrylates, ii.) 20-40 wt.% monomers selected from the group of monofunctional, difunctional, trifunctional, tetrafunctional and hexafunctional acrylates or methacrylates, iii.) 1-10 wt.% photoinitiators, iv.) 15-35 wt.% one or more thermochromic pigments, the imprint made of the composition being obtained by means of a screen-printing process. i.) 10-30 wt.% oligomers selected from the group of polyurethane, polyester, epoxy and polyether acrylates or methacrylates, ii.) 20-40 wt.% monomers selected from the group of monofunctional, difunctional, trifunctional, tetrafunctional and hexafunctional acrylates or methacrylates, iii.) 1-10 wt.% photoinitiators, iv.) 15-35 wt.% one or more thermochromic pigments,