mhurhangee/ep-ind-claims huggingface dataset:
Slave module for a modular controller system employing an industrial network for communication within the controller system, the modular controller system comprising a master module, wherein the slave module comprises: a processing unit; and a network adapter for the network, wherein the network adapter is operatively coupled to the processing unit; wherein the slave module includes a separate status input connector coupled to the processing unit and a separate status output connector coupled to the processing unit; wherein the processing unit is capable of sensing a voltage applied at the status input connector with respect to an electric reference potential, characterized in that the processing unit is capable to apply a trigger voltage at the status output connector with respect to the reference potential; wherein the slave module is configured to, in an enumeration state, - send, upon the processor unit sensing that the trigger voltage is applied at the status input connector, a presentation message to the master module via its network adapter and the network, - apply, upon receiving a registration response from the master module at the network adapter, the trigger voltage at the status output connector by means of the processing unit. a processing unit; and a network adapter for the network, wherein the network adapter is operatively coupled to the processing unit; wherein the slave module includes a separate status input connector coupled to the processing unit and a separate status output connector coupled to the processing unit; wherein the processing unit is capable of sensing a voltage applied at the status input connector with respect to an electric reference potential, characterized in that the processing unit is capable to apply a trigger voltage at the status output connector with respect to the reference potential; wherein the slave module is configured to, in an enumeration state, - send, upon the processor unit sensing that the trigger voltage is applied at the status input connector, a presentation message to the master module via its network adapter and the network, - apply, upon receiving a registration response from the master module at the network adapter, the trigger voltage at the status output connector by means of the processing unit. - send, upon the processor unit sensing that the trigger voltage is applied at the status input connector, a presentation message to the master module via its network adapter and the network, - apply, upon receiving a registration response from the master module at the network adapter, the trigger voltage at the status output connector by means of the processing unit.
A method for determining the amount of thyroglobulin in a test sample, comprising: (a) digesting thyroglobulin and an added isotopically labeled thyroglobulin peptide standard in said test sample to form Tg peptides and Tg peptide standard products, wherein in the Tg peptide standard one or more valine residues are isotopically labeled with 13 C, 15 N or both; (b) purifying said Tg peptides and Tg peptide standard products from step (a); (c) ionizing said Tg peptides and Tg peptide standard products from step (b) to produce one or more Tg peptide ions and Tg peptide standard product ions detectable by mass spectrometry; (d) detecting the amount of the ion(s) from step (c) by mass spectrometry; wherein the amount of the ion(s) detected in step (d) is related to the amount of thyroglobulin in said test sample and the amount of thyroglobulin peptide standard that was digested in step (a); and (e) determining the amount of thyroglobulin in the test sample, taking into account the amount of ions of Tg peptide standard products that was detected in step (d); wherein the thyroglobulin peptide standard comprises the amino acid sequence KVPESKVIFDANAPV*AV*RSKVPDS, wherein V* denotes an isotopically labeled valine residue. (a) digesting thyroglobulin and an added isotopically labeled thyroglobulin peptide standard in said test sample to form Tg peptides and Tg peptide standard products, wherein in the Tg peptide standard one or more valine residues are isotopically labeled with 13 C, 15 N or both; (b) purifying said Tg peptides and Tg peptide standard products from step (a); (c) ionizing said Tg peptides and Tg peptide standard products from step (b) to produce one or more Tg peptide ions and Tg peptide standard product ions detectable by mass spectrometry; (d) detecting the amount of the ion(s) from step (c) by mass spectrometry; wherein the amount of the ion(s) detected in step (d) is related to the amount of thyroglobulin in said test sample and the amount of thyroglobulin peptide standard that was digested in step (a); and (e) determining the amount of thyroglobulin in the test sample, taking into account the amount of ions of Tg peptide standard products that was detected in step (d); wherein the thyroglobulin peptide standard comprises the amino acid sequence KVPESKVIFDANAPV*AV*RSKVPDS, wherein V* denotes an isotopically labeled valine residue.
A method for recovering energy from flare gas in a polyolefin production process, comprising: diverting at least a portion of a flare gas from a flare header to form a diverted flare gas, wherein the flare header is fluidically coupled between a process vessel and a flare in a chemical plant comprising a polyolefin production facility; combusting the diverted flare gas in a power generation system to generate power. diverting at least a portion of a flare gas from a flare header to form a diverted flare gas, wherein the flare header is fluidically coupled between a process vessel and a flare in a chemical plant comprising a polyolefin production facility; combusting the diverted flare gas in a power generation system to generate power.
An iron-based powder composition comprising a minor amount of a machinability enhancing additive said additive comprising at least one synthetic titanate compound in powder form, the titanate compound being according to the following formula; MxO*nTiO2, wherein x can be 1 or 2 and n is a number from at least 1 and below 20, preferably below 10. M is an alkali metal such as Li, Na, K or an alkaline earth metal such as Mg, Ca, Ba, or combinations thereof; wherein the content of machinability enhancing additive is between 0.1 and 0.3% by weight; wherein the particle size of the titanate compound expressed as X95, as measured according to SS-ISO 13320-1, is below 20μm, such as below 15μm or below 10μm.
An electrical enclosure including a first wall having an exhaust opening, a second wall, and a third wall, the electrical enclosure comprising: at least one circuit breaker compartment (20, 22); a line compartment arranged between the third wall and an exhaust duct extending substantially vertically; the exhaust duct extending through the electrical enclosure between the first wall and the second wall, the exhaust duct being fluidically connected to the exhaust opening and each of the at least one circuit breaker compartments (20, 22); and at least one passage (70, 71, 73, 74, 77, 78, 80, 81) fluidically connecting the circuit breaker compartment (20, 22) and the exhaust duct and extending between the line compartment and the at least one circuit breaker compartment (20, 22) through the exhaust duct, the at least one passage (70, 71, 73, 74, 77, 78, 80, 81) being substantially fluidically isolated from the exhaust duct, characterized in that the at least one passage (70, 71, 73, 74, 77, 78, 80, 81) includes at least one first run-in passage (73, 80) providing a pathway for one or more conductors and at least one first run-out passage (74, 81) connecting the line compartment to the first circuit breaker compartment, wherein the at least one circuit breaker compartment (20, 22) comprises a first circuit breaker compartment and a second circuit breaker compartment, and at least one second run-in passage and at least one second run-out passage connecting the line compartment to the second circuit breaker compartment. at least one circuit breaker compartment (20, 22); a line compartment arranged between the third wall and an exhaust duct extending substantially vertically; the exhaust duct extending through the electrical enclosure between the first wall and the second wall, the exhaust duct being fluidically connected to the exhaust opening and each of the at least one circuit breaker compartments (20, 22); and at least one passage (70, 71, 73, 74, 77, 78, 80, 81) fluidically connecting the circuit breaker compartment (20, 22) and the exhaust duct and extending between the line compartment and the at least one circuit breaker compartment (20, 22) through the exhaust duct, the at least one passage (70, 71, 73, 74, 77, 78, 80, 81) being substantially fluidically isolated from the exhaust duct, characterized in that the at least one passage (70, 71, 73, 74, 77, 78, 80, 81) includes at least one first run-in passage (73, 80) providing a pathway for one or more conductors and at least one first run-out passage (74, 81) connecting the line compartment to the first circuit breaker compartment, wherein the at least one circuit breaker compartment (20, 22) comprises a first circuit breaker compartment and a second circuit breaker compartment, and at least one second run-in passage and at least one second run-out passage connecting the line compartment to the second circuit breaker compartment.
Use of at least one compound selected from the group consisting of: and wherein: x is 5 - 40; y = 0 - 10; W is selected from the group consisting of H, -SO 3 - M +, -PO 3 H - M +, and -CH 2 COO - M +; and M + is selected from the group consisting of Na +, K +, NH 4 + and triethanolamine as open time and freeze-thaw additive in a latex paint composition. x is 5 - 40; y = 0 - 10; W is selected from the group consisting of H, -SO 3 - M +, -PO 3 H - M +, and -CH 2 COO - M +; and M + is selected from the group consisting of Na +, K +, NH 4 + and triethanolamine as open time and freeze-thaw additive in a latex paint composition.
A compound of Formula which is a compound selected from the group consisting of the following compounds: and or a pharmaceutically acceptable salt form thereof. which is a compound selected from the group consisting of the following compounds: and or a pharmaceutically acceptable salt form thereof.
Pressure housing for a thermal machine, comprising at least two housing shells (10a,b) which can be connected together pressure-tightly in a separating plane by means of a flange, and at least one screw bolt (19; 19a-d), wherein the housing shells (10a,b) in the region of the flange are pressed tightly against each other in the separating plane by means of at least one screw bolt (19; 19a-d) extending through the flange perpendicular to the separating plane, characterized in that the at least one screw bolt (19; 19a-d) lies freely over part of its length to the inside of the housing.
A container with a lifting system for a fluid, comprising: a housing with an interior for accommodating fluid, and a first opening in fluid communication with the interior, wherein the container is designed to be connected to the lifting system, wherein the lifting system is designed for dosing the fluid from the container and has a piston pump with a piston and a temperature control device for temperature control of the fluid to be dosed by means of the lifting system, wherein the piston pump and the piston are designed so that a predefined amount of fluid is dosed out of the container by deflection of the piston, wherein the container is designed to be coupled to the temperature control device of the lifting system, and wherein the container is formed as a disposable item. a housing with an interior for accommodating fluid, and a first opening in fluid communication with the interior, wherein the container is designed to be connected to the lifting system, wherein the lifting system is designed for dosing the fluid from the container and has a piston pump with a piston and a temperature control device for temperature control of the fluid to be dosed by means of the lifting system, wherein the piston pump and the piston are designed so that a predefined amount of fluid is dosed out of the container by deflection of the piston, wherein the container is designed to be coupled to the temperature control device of the lifting system, and wherein the container is formed as a disposable item.
A cartridge, comprising: a casing including an inlet portion, the casing being configured to be filled with a developer via the inlet portion; and a lid member which is installed to the inlet portion to close the inlet portion; wherein the casing includes a first protruding portion which projects inward beyond an inner surface of the inlet portion in a direction perpendicular to an installation direction of the lid member; and the lid member includes a recessed portion which is recessed from an outer surface of the lid member in the direction perpendicular to the installation direction and is engaged with the first protruding portion in a case that the lid member is installed to the inlet portion and the lid member includes a second protruding portion which projects from the outer surface of the lid member in the direction perpendicular to the installation direction; characterized in that the casing includes an engagement portion which is engaged with the second protruding portion in the case that the lid member is installed to the inlet portion. a casing including an inlet portion, the casing being configured to be filled with a developer via the inlet portion; and a lid member which is installed to the inlet portion to close the inlet portion; wherein the casing includes a first protruding portion which projects inward beyond an inner surface of the inlet portion in a direction perpendicular to an installation direction of the lid member; and the lid member includes a recessed portion which is recessed from an outer surface of the lid member in the direction perpendicular to the installation direction and is engaged with the first protruding portion in a case that the lid member is installed to the inlet portion and the lid member includes a second protruding portion which projects from the outer surface of the lid member in the direction perpendicular to the installation direction; characterized in that the casing includes an engagement portion which is engaged with the second protruding portion in the case that the lid member is installed to the inlet portion.
A laser sintering system for fabricating three dimensional objects based upon design data and from a sinterable powder, the laser sintering system comprising: a hopper for supplying the sinterable powder to a build chamber of the laser sintering system; a powder distribution device for distributing the sinterable powder in a layer on a part bed; and a return powder device opposite the part bed from the hopper, wherein the return powder device is selectively moveable to enable a portion of powder to be transferred from one side of the powder distribution device to the other side and wherein the laser sintering system comprises a rotatable chute through which the sinterable powder passes between the hopper and the powder distribution device and a chute heater for preheating sinterable powder within the chute. a hopper for supplying the sinterable powder to a build chamber of the laser sintering system; a powder distribution device for distributing the sinterable powder in a layer on a part bed; and a return powder device opposite the part bed from the hopper, wherein the return powder device is selectively moveable to enable a portion of powder to be transferred from one side of the powder distribution device to the other side and wherein the laser sintering system comprises a rotatable chute through which the sinterable powder passes between the hopper and the powder distribution device and a chute heater for preheating sinterable powder within the chute.
A system for cooling an electronic module, the system comprising: a support member adapted to receive a cooling module and the electronic module, the cooling module comprising a wet disconnect water wall, the wet disconnect water wall comprising a fluid manifold to control a fluid in the wet disconnect water wall; the support member includes: a base including a cooling module alignment member adapted to align the cooling module with a cooling module connector at a front portion of the cooling module; and a pair of side walls extending from the base, the pair of sidewalls including an electronic module alignment member adapted to receive the electronic module, the support member aligns the cooling module and the electronic module such that the electronic module receives the fluid from a front portion of the cooling module; a retaining member connected to the support member and adapted to secure the cooling module within the support member and to hold the wet disconnect water wall; and an engagement member extending from the support member and attached to the base, wherein the engagement member is adapted to engage with the electronic module and position the electronic module therein. a support member adapted to receive a cooling module and the electronic module, the cooling module comprising a wet disconnect water wall, the wet disconnect water wall comprising a fluid manifold to control a fluid in the wet disconnect water wall; the support member includes: a base including a cooling module alignment member adapted to align the cooling module with a cooling module connector at a front portion of the cooling module; and a pair of side walls extending from the base, the pair of sidewalls including an electronic module alignment member adapted to receive the electronic module, the support member aligns the cooling module and the electronic module such that the electronic module receives the fluid from a front portion of the cooling module; a base including a cooling module alignment member adapted to align the cooling module with a cooling module connector at a front portion of the cooling module; and a pair of side walls extending from the base, the pair of sidewalls including an electronic module alignment member adapted to receive the electronic module, the support member aligns the cooling module and the electronic module such that the electronic module receives the fluid from a front portion of the cooling module; a retaining member connected to the support member and adapted to secure the cooling module within the support member and to hold the wet disconnect water wall; and an engagement member extending from the support member and attached to the base, wherein the engagement member is adapted to engage with the electronic module and position the electronic module therein.
A gas turbine engine comprising: a nacelle enclosing a fan section, a compressor, a combustor and a turbine, the nacelle including an inner nacelle surface defining an inlet duct; and means for reducing an inlet duct area of the inlet duct to increase acoustic attenuation, wherein the means for reducing the inlet area includes means for selectively reducing the inlet area, wherein the means for selectively reducing the inlet area comprises an inflatable bladder (70; 170; 270), characterised in that the inflatable bladder (70; 170; 270) is segmented around the circumference of the nacelle to allow asymmetrical deployment thereof. a nacelle enclosing a fan section, a compressor, a combustor and a turbine, the nacelle including an inner nacelle surface defining an inlet duct; and means for reducing an inlet duct area of the inlet duct to increase acoustic attenuation, wherein the means for reducing the inlet area includes means for selectively reducing the inlet area, wherein the means for selectively reducing the inlet area comprises an inflatable bladder (70; 170; 270), characterised in that the inflatable bladder (70; 170; 270) is segmented around the circumference of the nacelle to allow asymmetrical deployment thereof.
A composition comprising a therapeutically effective dose of isolated glial cell derived neurotrophic factor (GDNF), or a biologically active fragment thereof, for use in promoting cutaneous wound healing in a subject, said use comprising the step of administering said composition at a wound site on said subject and repeating said administration for a time period sufficient to promote said cutaneous wound healing.
An antibody that is specific for survivin for use in a method for treating survivin-expressing tumor in an individual, the use comprising administering a composition to the individual who has survivin-expressing tumor, said composition comprising the antibody that is specific for survivin; wherein the antibody comprises a heavy chain variable region and a light chain variable region, wherein, a) the heavy chain variable region comprises a VH CDR1 comprising the sequence of SEQ ID NO:7, a VH CDR2 comprising the sequence of SEQ ID NO:8, and a VH CDR3 comprising the sequence of SEQ ID NO:9, and the light chain variable region comprises a VL CDR1 comprising the sequence of SEQ ID NO:10, a VL CDR2 comprising the sequence of SEQ ID NO:11, and a VL CDR3 comprising the sequence of SEQ ID NO:12; or b) the heavy chain variable region comprises a VH CDR1 comprising the sequence of SEQ ID NO:13, a VH CDR2 comprising the sequence of SEQ ID NO:14, and a VH CDR3 comprising the sequence of SEQ ID NO:15, and the light chain variable region comprises a VL CDR1 comprising the sequence of SEQ ID NO:16, a VL CDR2 comprising the sequence of SEQ ID NO:17, and a VL CDR3 comprising the sequence of SEQ ID NO:18. a) the heavy chain variable region comprises a VH CDR1 comprising the sequence of SEQ ID NO:7, a VH CDR2 comprising the sequence of SEQ ID NO:8, and a VH CDR3 comprising the sequence of SEQ ID NO:9, and the light chain variable region comprises a VL CDR1 comprising the sequence of SEQ ID NO:10, a VL CDR2 comprising the sequence of SEQ ID NO:11, and a VL CDR3 comprising the sequence of SEQ ID NO:12; or b) the heavy chain variable region comprises a VH CDR1 comprising the sequence of SEQ ID NO:13, a VH CDR2 comprising the sequence of SEQ ID NO:14, and a VH CDR3 comprising the sequence of SEQ ID NO:15, and the light chain variable region comprises a VL CDR1 comprising the sequence of SEQ ID NO:16, a VL CDR2 comprising the sequence of SEQ ID NO:17, and a VL CDR3 comprising the sequence of SEQ ID NO:18.
Method for implementing a thermally insulating sandwich construction of a housing of a climate chamber for a high temperature region of 120° C to 350° C, having an inner walling and an outer walling, comprising the following method steps: - providing the inner walling, - adhering at least one high temperature resistant insulating plate to the inner walling, - positioning the outer walling with respect to the inner walling such that the at least one high temperature resistant insulating plate and a hollow space is implemented between the inner walling and the outer walling, and - filling the hollow space with a PUR foam to form a second rigid foam layer which attachs the at least one high temperature insulating plate to the outer walling, wherein numerous high temperature insulating plates are contiguously adhered to the inner walling through gaps, and the gaps are closed with a temperature resistant adhesive or a temperature resistant adhesive tape on the side facing away from the inner walling. - providing the inner walling, - adhering at least one high temperature resistant insulating plate to the inner walling, - positioning the outer walling with respect to the inner walling such that the at least one high temperature resistant insulating plate and a hollow space is implemented between the inner walling and the outer walling, and - filling the hollow space with a PUR foam to form a second rigid foam layer which attachs the at least one high temperature insulating plate to the outer walling,