mhurhangee/ep-ind-claims huggingface dataset:
Automatic configuration system for an operator console wherein one or more operators (A, B) control and monitor physical facilities, operations or physically dispersed services, said system comprising wearable personal identification devices worn by the operators (A, B) and a control unit for communicating with said wearable personal identification devices in order to detect the presence of said one or more operators (A, B) within a defined control room area, characterized in that each personal identification device includes a sensor unit for monitoring operator data, and is adapted to communicate said operator data to the control unit, and in that the control unit is adapted to configure the operator console based on said operator data, monitor the position of an operator (A, B) relative to the operator console, and adapt the information interface depending on the operator's (A, B) position by automatically moving the display of prioritized information closer to the sensed position of the operator from a first information display location located at a first distance (d 1) from the operator to a second information display location located at a second distance (d 2) from the operator, said first distance (d 1) exceeding said second distance (d 2). wearable personal identification devices worn by the operators (A, B) and a control unit for communicating with said wearable personal identification devices in order to detect the presence of said one or more operators (A, B) within a defined control room area, characterized in that each personal identification device includes a sensor unit for monitoring operator data, and is adapted to communicate said operator data to the control unit, and in that the control unit is adapted to configure the operator console based on said operator data, monitor the position of an operator (A, B) relative to the operator console, and adapt the information interface depending on the operator's (A, B) position by automatically moving the display of prioritized information closer to the sensed position of the operator from a first information display location located at a first distance (d 1) from the operator to a second information display location located at a second distance (d 2) from the operator, said first distance (d 1) exceeding said second distance (d 2). configure the operator console based on said operator data, monitor the position of an operator (A, B) relative to the operator console, and adapt the information interface depending on the operator's (A, B) position by automatically moving the display of prioritized information closer to the sensed position of the operator from a first information display location located at a first distance (d 1) from the operator to a second information display location located at a second distance (d 2) from the operator, said first distance (d 1) exceeding said second distance (d 2).
A process for making a polycarboxylic acid composition, said process comprising: (a) subjecting a multi-phase reaction medium to oxidation in a primary oxidation zone to thereby produce an initial slurry; (b) subjecting at least a portion of said initial slurry to oxidative digestion in a digestion zone to thereby produce a digestion product slurry; (c) cooling at least a portion of said digestion product slurry in a cooling zone to thereby produce a cooled slurry comprising cooled liquid and solid phases; and (d) using a solvent purification system to remove of at least one aromatic impurity present in a solvent purification feed introduced into said solvent purification system, wherein said cooled liquid phase of said cooled slurry forms at least 20 weight percent of said solvent purification feed; the process further comprising introducing a solvent feed into said primary oxidation zone, wherein at least 20 weight percent of said solvent feed is recycled solvent; wherein the polycarboxylic acid composition comprises terephthalic acid, and the multi-phase reaction medium comprises a three-phase medium having solid-phase, liquid-phase, and gas-phase components. (a) subjecting a multi-phase reaction medium to oxidation in a primary oxidation zone to thereby produce an initial slurry; (b) subjecting at least a portion of said initial slurry to oxidative digestion in a digestion zone to thereby produce a digestion product slurry; (c) cooling at least a portion of said digestion product slurry in a cooling zone to thereby produce a cooled slurry comprising cooled liquid and solid phases; and (d) using a solvent purification system to remove of at least one aromatic impurity present in a solvent purification feed introduced into said solvent purification system, wherein said cooled liquid phase of said cooled slurry forms at least 20 weight percent of said solvent purification feed;
A system for protecting identity of an at least one network device (202, 302, 402, 502) having at least one identifier, the network device being on a private side of the system, and capable of communicating with a destination device on a public side of the system, the system comprising at least two masking devices (236, 228, 336, 328, 436, 428, 530, 536), at least one (228, 236, 328, 428, 436, 536) of which employs a network address translation exploder, NATE, and a distribution apparatus (230, 330, 430, 524) adapted to direct a connection from the network device to the destination device via a selected masking device from the at least two masking devices, where each of the masking devices is configured to protect the at least one identifier from detection by the destination device by masking the at least one identifier from access from the public side of the network, said at least one identifier including an IP address, said masking including translating the IP address into a masking IP address available to the masking device and, for a masking device employing NATE, said masking including translating the IP address into many masking IP addresses by assigning a single different IP address for each at least one network device so as to make the at least one network device appear as many different devices, wherein a plurality of masking IP addresses is available to each masking device employing NATE.
An apparatus for controlling fluid flow between a first location and a second location, comprising: a body having a fluid conduit, the conduit having an inlet in fluid communication with the first location and an outlet in fluid communication with the second location and including a first and second fluid branch (136, 138), the body further having a chamber; a valve element disposed in the chamber, the valve element having a seal separating the chamber into a pressure section and a flow section, the flow section being in fluid communication with the inlet, and wherein the pressure section is in hydraulic communication with the outlet via the first outlet fluid branch, each outlet fluid branch configured to receive fluid from the flow section via a separate connection, and wherein the first outlet fluid branch is in fluid communication with the pressure section, the apparatus further comprising: - a shear seal having at least one movable sealing element fixed to and configured to move with the valve element and a first and a second stationary sealing element (116, 120) disposed in the body, the seal of the valve element being positioned between the pressure section and the at least one movable sealing element; and wherein the valve element has a closed position wherein fluid flow is blocked between the inlet and the first and second outlet branch (136,138) when the valve element is axially displaced along the axis of the valve element such that the first and the second stationary sealing elements (116, 120) are each in sealing engagement with the at least one movable sealing element, wherein a pressure communicated by the first outlet fluid branch also urges the valve element to the closed position and maintains the valve element in the closed position, wherein the valve element has an open position wherein fluid flows into the inlet, through a flow bore formed in the valve element, along the first and second outlet branch (136, 138), and then to the outlet when the valve element is axially displaced along the axis of the valve element such that the flow bore aligns with the first and second outlet fluid branch (136, 138), and a biasing member urging the valve element to the closed position. - a shear seal having at least one movable sealing element fixed to and configured to move with the valve element and a first and a second stationary sealing element (116, 120) disposed in the body, the seal of the valve element being positioned between the pressure section and the at least one movable sealing element; and
A load system, comprising: a power supply input unit for a load test of an external power supply; a charging circuit or a charger (Bc1,... Bci,... Bcn) to which electric power from the external power supply is supplied via the power supply input unit; a plurality of loads to which the electric power from the charging circuit or the charger (Bc1,... Bci,... Bcn) is supplied; and a control circuit configured to switch selectively and connects the plurality of loads to the charging circuit or the charger (Bc1,... Bci,... Bcn), the load system being characterized in that: the plurality of loads includes a plurality of storage batteries (EBS,... EBS(i),... EBS(n), EBS) used as a load resistance during the load test of the external power supply, and the control circuit is configured to switch selectively and connect the plurality of storage batteries (EBS,... EBS(i),... EBS(n), EBS) to the charging circuit or the charger (Bc1,... Bci,... Bcn) such that a storage battery of the plurality of storage batteries (EBS,... EBS(i),... EBS(n), EBS), when connected to the charging circuit or the charger (Bc1,... Bci,... Bcn), is charged by the charging circuit or the charger (Bc1,... Bci,... Bcn). a power supply input unit for a load test of an external power supply; a charging circuit or a charger (Bc1,... Bci,... Bcn) to which electric power from the external power supply is supplied via the power supply input unit; a plurality of loads to which the electric power from the charging circuit or the charger (Bc1,... Bci,... Bcn) is supplied; and a control circuit configured to switch selectively and connects the plurality of loads to the charging circuit or the charger (Bc1,... Bci,... Bcn), the plurality of loads includes a plurality of storage batteries (EBS,... EBS(i),... EBS(n), EBS) used as a load resistance during the load test of the external power supply, and the control circuit is configured to switch selectively and connect the plurality of storage batteries (EBS,... EBS(i),... EBS(n), EBS) to the charging circuit or the charger (Bc1,... Bci,... Bcn) such that a storage battery of the plurality of storage batteries (EBS,... EBS(i),... EBS(n), EBS), when connected to the charging circuit or the charger (Bc1,... Bci,... Bcn), is charged by the charging circuit or the charger (Bc1,... Bci,... Bcn).
Compound selected from: (i) a monoclonal human antibody or an antigen-binding fragment thereof specific for human Fas ligand protein (FasL), wherein said monoclonal antibody comprises at least one heavy chain variable region and at least one light chain variable region, wherein the amino acid sequences of the complementary determining regions (CDRs) of the heavy chain are: (a 1) CDR H1: Arg His Gly Ile Thr (SEQ ID NO: 13) or (a 2) CDR H1: Ser His Gly Ile Ser (SEQ ID NO: 14), (b 1) or (b 2) (c 1) CDR H3: Glu Thr Met Val Arg Gly Val Pro Leu Asp Tyr (SEQ ID NO: 17) or (c 2) CDR H3: Glu Thr Met Val Arg Gly Val Pro Cys Asp Tyr (SEQ ID NO: 18), and the amino acid sequences of the complementary determining regions (CDRs) of the light chain are (a 3) CDR L1: Arg Ala Ser Gln Ser Val Ser Ser Ser Tyr Leu Ala (SEQ ID NO: 19), (b 3) CDR L2: Gly Ala Ser Ser Arg Ala Thr (SEQ ID NO: 20), (c 3) CDR L3: Gln Gln Tyr Gly Ser Ser Pro Trp Thr (SEQ ID NO: 21) and (ii) an antibody or an antigen-binding fragment thereof which recognizes the same epitope on human FasL as an antibody having a light chain variable region comprising amino acid sequence and the heavy chain variable region comprising amino acid sequence or for use in the prevention and/or treatment of pemphigus. (i) a monoclonal human antibody or an antigen-binding fragment thereof specific for human Fas ligand protein (FasL), wherein said monoclonal antibody comprises at least one heavy chain variable region and at least one light chain variable region, wherein the amino acid sequences of the complementary determining regions (CDRs) of the heavy chain are: (a 1) CDR H1: Arg His Gly Ile Thr (SEQ ID NO: 13) or (a 2) CDR H1: Ser His Gly Ile Ser (SEQ ID NO: 14), (b 1) or (b 2) (c 1) CDR H3: Glu Thr Met Val Arg Gly Val Pro Leu Asp Tyr (SEQ ID NO: 17) or (c 2) CDR H3: Glu Thr Met Val Arg Gly Val Pro Cys Asp Tyr (SEQ ID NO: 18), and the amino acid sequences of the complementary determining regions (CDRs) of the light chain are (a 3) CDR L1: Arg Ala Ser Gln Ser Val Ser Ser Ser Tyr Leu Ala (SEQ ID NO: 19), (b 3) CDR L2: Gly Ala Ser Ser Arg Ala Thr (SEQ ID NO: 20), (c 3) CDR L3: Gln Gln Tyr Gly Ser Ser Pro Trp Thr (SEQ ID NO: 21) and (a 1) CDR H1: Arg His Gly Ile Thr (SEQ ID NO: 13) or (a 2) CDR H1: Ser His Gly Ile Ser (SEQ ID NO: 14), (b 1) or (b 2) (c 1) CDR H3: Glu Thr Met Val Arg Gly Val Pro Leu Asp Tyr (SEQ ID NO: 17) or (c 2) CDR H3: Glu Thr Met Val Arg Gly Val Pro Cys Asp Tyr (SEQ ID NO: 18), (a 3) CDR L1: Arg Ala Ser Gln Ser Val Ser Ser Ser Tyr Leu Ala (SEQ ID NO: 19), (b 3) CDR L2: Gly Ala Ser Ser Arg Ala Thr (SEQ ID NO: 20), (c 3) CDR L3: Gln Gln Tyr Gly Ser Ser Pro Trp Thr (SEQ ID NO: 21) and (ii) an antibody or an antigen-binding fragment thereof which recognizes the same epitope on human FasL as an antibody having a light chain variable region comprising amino acid sequence and the heavy chain variable region comprising amino acid sequence or for use in the prevention and/or treatment of pemphigus.
A method for forming transistors, comprising: forming a transistor body, including: etching, by a lithographic process, a hole in a silicon nitride layer formed on a crystalline silicon substrate; depositing amorphous silicon and directionally etching it, so as to only leave amorphous silicon on the sidewall of the hole; removing the silicon nitride layer to leave only the amorphous silicon on the crystalline silicon substrate; performing a solid phase epitaxy, SPE process to crystallize the amorphous silicon into a crystalline silicon wall using the crystalline silicon substrate to seed the crystalline growth, etching away portions of the crystalline silicon wall to leave crystalline fins; each of the transistor bodies being formed in the respective crystalline fin between a first source/drain region and a second source/drain region; forming a surrounding gate insulator around each crystalline fin; and forming a surrounding gate around and separated from each crystalline fin by the surrounding gate insulator. forming a transistor body, including: etching, by a lithographic process, a hole in a silicon nitride layer formed on a crystalline silicon substrate; depositing amorphous silicon and directionally etching it, so as to only leave amorphous silicon on the sidewall of the hole; removing the silicon nitride layer to leave only the amorphous silicon on the crystalline silicon substrate; performing a solid phase epitaxy, SPE process to crystallize the amorphous silicon into a crystalline silicon wall using the crystalline silicon substrate to seed the crystalline growth, etching away portions of the crystalline silicon wall to leave crystalline fins; each of the transistor bodies being formed in the respective crystalline fin between a first source/drain region and a second source/drain region; etching, by a lithographic process, a hole in a silicon nitride layer formed on a crystalline silicon substrate; depositing amorphous silicon and directionally etching it, so as to only leave amorphous silicon on the sidewall of the hole; removing the silicon nitride layer to leave only the amorphous silicon on the crystalline silicon substrate; performing a solid phase epitaxy, SPE process to crystallize the amorphous silicon into a crystalline silicon wall using the crystalline silicon substrate to seed the crystalline growth, etching away portions of the crystalline silicon wall to leave crystalline fins; each of the transistor bodies being formed in the respective crystalline fin between a first source/drain region and a second source/drain region; forming a surrounding gate insulator around each crystalline fin; and forming a surrounding gate around and separated from each crystalline fin by the surrounding gate insulator.
A suitcase comprising an hollow container body defining an internal compartment and having: - a supporting wall; - an upper wall opposite to said supporting wall; - a first opening, closable, for access to said compartment; characterized in that said upper wall comprises two edges (15, 16) adjacent each other delimiting a second opening closable and central to said top wall, said suitcase further comprising a support having two flaps (19, 20) folded one over the other to form a U-shaped pocket which divides said compartment in two half-compartments (B, C), each of said flaps (19, 20) being connected with a corresponding one of the edges (15, 16) of said upper wall and at least a first of said flaps (19, 20) being slidable with respect to its corresponding first edge (15, 16) to reduce or extend the depth of said pocket for the extraction or the housing of a product in the latter; wherein the suitcase further comprises elastic means fixed to said support and to said supporting wall to oppose the sliding of said flaps (19, 20) towards said second opening. - a supporting wall; - an upper wall opposite to said supporting wall; - a first opening, closable, for access to said compartment; characterized in that said upper wall comprises two edges (15, 16) adjacent each other delimiting a second opening closable and central to said top wall, said suitcase further comprising a support having two flaps (19, 20) folded one over the other to form a U-shaped pocket which divides said compartment in two half-compartments (B, C), each of said flaps (19, 20) being connected with a corresponding one of the edges (15, 16) of said upper wall and at least a first of said flaps (19, 20) being slidable with respect to its corresponding first edge (15, 16) to reduce or extend the depth of said pocket for the extraction or the housing of a product in the latter; wherein the suitcase further comprises elastic means fixed to said support and to said supporting wall to oppose the sliding of said flaps (19, 20) towards said second opening.
A living flame candle platform comprising: an outer shell having a hollow interior connecting a first opening at an upper end of the outer shell and a second opening at a lower end of the outer shell; an inner shell positioned within the hollow interior of the outer shell and having a hollow inner volume and a second set of threads (204a, 205a); a support plate positioned within the hollow inner volume of the inner shell, the support plate having a hollow channel through a mid-section thereof; an ignition assembly positioned within the hollow inner volume of the inner shell; and a fuel source positioned within the hollow inner volume of the inner shell, the fuel source having a cylindrical shape, wherein an upper section of the fuel source has a smaller diameter than a lower section of the fuel source, the fuel source further including a first set of threads (204a, 205a) thereon for engagement with the second set of threads (204a, 205a) of the inner shell so as to allow the fuel source to be secured within the hollow inner volume of the inner shell. an outer shell having a hollow interior connecting a first opening at an upper end of the outer shell and a second opening at a lower end of the outer shell; an inner shell positioned within the hollow interior of the outer shell and having a hollow inner volume and a second set of threads (204a, 205a); a support plate positioned within the hollow inner volume of the inner shell, the support plate having a hollow channel through a mid-section thereof; an ignition assembly positioned within the hollow inner volume of the inner shell; and a fuel source positioned within the hollow inner volume of the inner shell, the fuel source having a cylindrical shape, wherein an upper section of the fuel source has a smaller diameter than a lower section of the fuel source, the fuel source further including a first set of threads (204a, 205a) thereon for engagement with the second set of threads (204a, 205a) of the inner shell so as to allow the fuel source to be secured within the hollow inner volume of the inner shell.
An on-chip supercapacitor having an electrode comprising one-dimensional silicon (Si) nanostructures coated with a first layer of titanium nitride (TiN), characterized in that it further comprises a second layer of manganese dioxide (MnO 2) deposited on the first layer.
A cocrystalline composition comprising: dehydroepiandrosterone (DHEA), wherein the DHEA is a polymorph form I or polymorph form II; and a crystalline coformer, wherein the coformer is at least one chosen from the group consisting of fructose, maleic acid, tartaric acid, and glutaric acid; and the DHEA and the coformer are in an approximately 1:1 molar stoichiometric ratio. dehydroepiandrosterone (DHEA), wherein the DHEA is a polymorph form I or polymorph form II; and a crystalline coformer, wherein the coformer is at least one chosen from the group consisting of fructose, maleic acid, tartaric acid, and glutaric acid; and
A bicycle simulator comprising: a base portion having a frame shape; a frame support portion supported by the base portion and supporting a bicycle frame connecting a front wheel of a mounted bicycle to a rear wheel of the mounted bicycle; a first treadmill extending in a running direction of the bicycle, supporting the front wheel of the bicycle, and rotating according to rotation of the front wheel; a second treadmill extending in the running direction of the bicycle, supporting the rear wheel of the bicycle, and rotating according to rotation of the rear wheel; characterized in that it further comprises: a first slide guide fixed to the base portion and extending in the running direction of the bicycle; and a first slide portion supporting the frame support portion and connected to the first slide guide to be slidable in the running direction of the bicycle in the first slide guide; wherein the frame support portion is disposed between the first treadmill and the second treadmill. a base portion having a frame shape; a frame support portion supported by the base portion and supporting a bicycle frame connecting a front wheel of a mounted bicycle to a rear wheel of the mounted bicycle; a first treadmill extending in a running direction of the bicycle, supporting the front wheel of the bicycle, and rotating according to rotation of the front wheel; a second treadmill extending in the running direction of the bicycle, supporting the rear wheel of the bicycle, and rotating according to rotation of the rear wheel; characterized in that it further comprises: a first slide guide fixed to the base portion and extending in the running direction of the bicycle; and a first slide portion supporting the frame support portion and connected to the first slide guide to be slidable in the running direction of the bicycle in the first slide guide; wherein the frame support portion is disposed between the first treadmill and the second treadmill. a first slide guide fixed to the base portion and extending in the running direction of the bicycle; and a first slide portion supporting the frame support portion and connected to the first slide guide to be slidable in the running direction of the bicycle in the first slide guide; wherein the frame support portion is disposed between the first treadmill and the second treadmill.