mhurhangee/patent-ind-claim-en huggingface dataset:
Device for the freezing of soil, having - a freezer lance extending along a longitudinal axis (L) and designed to be introduced into the soil for freezing soil, wherein the freezer lance has a sheath which surrounds an inner space with a first section for receiving a liquid refrigerant (K), wherein the soil surrounding the freezer lance can be cooled by means of the refrigerant (K) present in the first section , - a line , projecting into the inner space , for providing the liquid refrigerant (K) in the first section of the inner space , - wherein the device has a first end section in which a first opening is provided for extracting from the inner space an off-gas (A) formed by evaporation of the refrigerant (K), characterized in that the inner space has a second section , adjacent to the first section along the longitudinal axis (L), for receiving the off-gas (A), so that the off-gas (A) in the second section can contact the sheath . - a freezer lance extending along a longitudinal axis (L) and designed to be introduced into the soil for freezing soil, wherein the freezer lance has a sheath which surrounds an inner space with a first section for receiving a liquid refrigerant (K), wherein the soil surrounding the freezer lance can be cooled by means of the refrigerant (K) present in the first section , - a line , projecting into the inner space , for providing the liquid refrigerant (K) in the first section of the inner space , - wherein the device has a first end section in which a first opening is provided for extracting from the inner space an off-gas (A) formed by evaporation of the refrigerant (K),
A self-foaming composition comprising: a. 20 wt% to less than 70 wt% polyol; and b. 1.5 wt% to 25% of total surfactant wherein 50 wt% or more of the total surfactant is a surfactant defined by a V h /l c a o value of 0.1 to 0.25, wherein V h is the volume of the hydrophobic groups of the micellar core, l c is the length of the hydrophobic group and a o is the cross-sectional area occupied by the hydrophilic group at the micelle-solution interface, wherein said surfactant defined by the V h /l c a o value of 0.1 to 0.25 is selected from the group consisting of sultaines, betaines, alkyl taurates, alkyl glutamates and glycinates, alkyl isethionate, alkyl glucosides, alkyl amphoacetate; and mixtures thereof; wherein viscosity of the formulation is 25 cP or less, measured at 25 °C; wherein composition comprises no more than 0 to 0.5wt% propellant gel or gas. a. 20 wt% to less than 70 wt% polyol; and b. 1.5 wt% to 25% of total surfactant wherein 50 wt% or more of the total surfactant is a surfactant defined by a V h /l c a o value of 0.1 to 0.25, wherein V h is the volume of the hydrophobic groups of the micellar core, l c is the length of the hydrophobic group and a o is the cross-sectional area occupied by the hydrophilic group at the micelle-solution interface, wherein said surfactant defined by the V h /l c a o value of 0.1 to 0.25 is selected from the group consisting of sultaines, betaines, alkyl taurates, alkyl glutamates and glycinates, alkyl isethionate, alkyl glucosides, alkyl amphoacetate; and mixtures thereof; wherein viscosity of the formulation is 25 cP or less, measured at 25 °C; wherein composition comprises no more than 0 to 0.5wt% propellant gel or gas.
A pharmaceutical tablet formulation comprising; ibuprofen and paracetamol or a pharmaceutically acceptable salts thereof as active ingredient, characterized in that said tablet comprises a sub-coating layer wherein this layer comprising a high-chain (6 to 12 carbons) fatty acid esters of glycerol which is glyceryl monocaprylocaprate with a content of 0.1%-0.3% (w/w) by weight of the tablet composition.
A system comprising: a first network having a first communications protocol; a second network having a second communications protocol; at least one edge device in communication with the first network and the second network, the edge device comprising a translator to translate a first address associated with the first network and based on the first communications protocol into a second address associated with the second network and based on the second communications protocol, the second address comprising: a first address portion based on a first fragment of the first address; a second address portion having a translation key based on a second fragment of the first address; and a third address portion having a locator address. a first network having a first communications protocol; a second network having a second communications protocol; at least one edge device in communication with the first network and the second network, the edge device comprising a translator to translate a first address associated with the first network and based on the first communications protocol into a second address associated with the second network and based on the second communications protocol, the second address comprising: a first address portion based on a first fragment of the first address; a second address portion having a translation key based on a second fragment of the first address; and a third address portion having a locator address. a first address portion based on a first fragment of the first address; a second address portion having a translation key based on a second fragment of the first address; and a third address portion having a locator address.
A method for producing glycolide comprising: an oligomer preparation step of heating an aqueous glycolic acid solution and subjecting glycolic acid contained in the aqueous glycolic acid solution to dehydrating poly condensation, to obtain a glycolic acid oligomer; and a depolymerization step of depolymerizing the glycolic acid oligomer in the presence of ferrous ions to obtain glycolide. an oligomer preparation step of heating an aqueous glycolic acid solution and subjecting glycolic acid contained in the aqueous glycolic acid solution to dehydrating poly condensation, to obtain a glycolic acid oligomer; and a depolymerization step of depolymerizing the glycolic acid oligomer in the presence of ferrous ions to obtain glycolide.
A process for producing an oxygen carrier that is suitable for use in a chemical looping combustion unit, comprising the steps of: removing and collecting black powder that is formed within a gas pipeline; pre-treating the collected black powder via a spray drying process or a freeze granulation process; and activating the collected black powder to increase the reactivity of the black powder to form a black powder oxygen carrier for use in the chemical looping combustion unit, wherein the activation step includes passing a flue gas through the pre-treated black powder to produce the oxygen carrier which is for subsequent placement in the chemical combustion unit, whereby the activation step increases porosity and surface area of the black powder for improved gas-solid contact, thereby improving the reactivity of the black powder towards other gas, liquid or solid fuels. removing and collecting black powder that is formed within a gas pipeline; pre-treating the collected black powder via a spray drying process or a freeze granulation process; and activating the collected black powder to increase the reactivity of the black powder to form a black powder oxygen carrier for use in the chemical looping combustion unit, wherein the activation step includes passing a flue gas through the pre-treated black powder to produce the oxygen carrier which is for subsequent placement in the chemical combustion unit, whereby the activation step increases porosity and surface area of the black powder for improved gas-solid contact, thereby improving the reactivity of the black powder towards other gas, liquid or solid fuels.
Hose holder for storing a hose at a water tap comprising a connection portion for connecting the holding device with the water tap and a holding portion for receiving the hose , wherein the connection portion comprises a tap connection portion for mechanically and fluidly coupling the hose holder with said water tap and wherein the holding portion comprises a hose receiving area for supporting the coiled hose in a hanging position such that the windings of the coiled hose are arranged in a vertical or essentially vertical plane, whereby the hose holder is adapted to be rotated around a vertical axis when coupled with the water tap , characterized in, that the holding portion comprises a hook-shaped section including an upwardly inclined hose holding portion .
An epoxy resin composition comprising an epoxy resin, a curing agent, and an inorganic filler, wherein the epoxy resin includes a crystalline epoxy resin and a general amorphous epoxy resin in which a molecule has at least two epoxy groups, wherein the epoxy resin composition comprises 3 wt% to 60 wt% of epoxy resin based on a total weight of the epoxy resin composition, wherein the epoxy resin composition comprises 0.5 wt% to 5 wt% of the curing agent based on a total weight of the epoxy resin composition, wherein the epoxy resin composition comprises 85 wt% to 97 wt% of inorganic filler based on a total weight of the epoxy resin composition, wherein the cured epoxy resin composition has a thermal conductivity of at least 3 W/mK, wherein the epoxy resin comprises at least 50 wt% of the crystalline epoxy resin, characterized in that the crystalline epoxy resin is represented by the following chemical formula: wherein the epoxy resin includes a crystalline epoxy resin and a general amorphous epoxy resin in which a molecule has at least two epoxy groups, wherein the epoxy resin composition comprises 3 wt% to 60 wt% of epoxy resin based on a total weight of the epoxy resin composition, wherein the epoxy resin composition comprises 0.5 wt% to 5 wt% of the curing agent based on a total weight of the epoxy resin composition, wherein the epoxy resin composition comprises 85 wt% to 97 wt% of inorganic filler based on a total weight of the epoxy resin composition, wherein the cured epoxy resin composition has a thermal conductivity of at least 3 W/mK, wherein the epoxy resin comprises at least 50 wt% of the crystalline epoxy resin, characterized in that the crystalline epoxy resin is represented by the following chemical formula:
A method for preparing a glass composition, comprising heating a borosilicate glass comprising 45-85 wt.% silicon oxide and 10-40 wt.% boron oxide to form, by spinodal decomposition, a phase-separated glass comprising an interpenetrating network of silicon oxide domains and boron oxide domains; removing, by etching or leaching in an aqueous solution, at least a portion of the boron oxide domains from the phase-separated glass to form pores and, before removing all of the aqueous solution by drying, depositing a hydrophobic silane on an interior surface of the pores to provide a porous glass having: a hydrophobic silane layer disposed on a portion of the surface thereof; a total pore volume of 15-50 vol.%; and an average pore diameter of 20-300 nm; within at least a portion of the pore volume of the porous glass, forming an aerogel precursor; and converting at least a portion of the aerogel precursor to an aerogel. heating a borosilicate glass comprising 45-85 wt.% silicon oxide and 10-40 wt.% boron oxide to form, by spinodal decomposition, a phase-separated glass comprising an interpenetrating network of silicon oxide domains and boron oxide domains; removing, by etching or leaching in an aqueous solution, at least a portion of the boron oxide domains from the phase-separated glass to form pores and, before removing all of the aqueous solution by drying, depositing a hydrophobic silane on an interior surface of the pores to provide a porous glass having: a hydrophobic silane layer disposed on a portion of the surface thereof; a total pore volume of 15-50 vol.%; and an average pore diameter of 20-300 nm; a hydrophobic silane layer disposed on a portion of the surface thereof; a total pore volume of 15-50 vol.%; and an average pore diameter of 20-300 nm; within at least a portion of the pore volume of the porous glass, forming an aerogel precursor; and converting at least a portion of the aerogel precursor to an aerogel.
A porous sintered body comprising: hollow cores following a vanished shape of an interlaced or otherwise structured fibriform vanisher material; sintered walls extending longitudinally of the cores and obtained by sintering a first sintering powder held around the cores; and voids between the sintered walls; the cores and the voids communicating with each other via absent regions formed in the sintered walls, wherein the sintered walls have surfaces formed with a sintered microparticulate layer made from a material containing a second sintering powder having a smaller diameter than the first sintering powder,the layer having predetermined pores, the cores have a diameter of 5um through 100um, the sintered walls are made by sintering the first sintering powder having an average particle size of 1/5 thorough 1/50 of a diameter of the fibriform vanisher material, the sintered walls have an average thickness of 0.5 um through 50 um; and the sintered microparticulate layer is made of a material containing at least two different kinds of micro particle powders and is made by sintering the second sintering powder of an average particle size of 20 nm through 1000 nm, and has a thickness of 20 nm through 1000nm, and wherein the fibriform vanisher material has a circular section, the first sintering powder and the second sintering powder are ballshaped. hollow cores following a vanished shape of an interlaced or otherwise structured fibriform vanisher material; sintered walls extending longitudinally of the cores and obtained by sintering a first sintering powder held around the cores; and voids between the sintered walls; the cores and the voids communicating with each other via absent regions formed in the sintered walls, wherein the sintered walls have surfaces formed with a sintered microparticulate layer made from a material containing a second sintering powder having a smaller diameter than the first sintering powder,the layer having predetermined pores, the cores have a diameter of 5um through 100um, the sintered walls are made by sintering the first sintering powder having an average particle size of 1/5 thorough 1/50 of a diameter of the fibriform vanisher material, the sintered walls have an average thickness of 0.5 um through 50 um; and the sintered microparticulate layer is made of a material containing at least two different kinds of micro particle powders and is made by sintering the second sintering powder of an average particle size of 20 nm through 1000 nm, and has a thickness of 20 nm through 1000nm, the fibriform vanisher material has a circular section, the first sintering powder and the second sintering powder are ballshaped.
A olefin metathesis catalyst represented by the structure of Formula (I), wherein: M is a Ru; q is 0; X 3 is Cl; X 4 is Cl; wherein: L 4 and L 5 are independently A 1 is hydrogen; and A 2 is phenyl, C 1 -C 3 alkyl or C 2 -C 4 alkenyl with A 2 being substituted with at least one substituent selected from: C 1 -C 6 alkoxy (-O-alkyl), C 2 -C 24 alkylcarbonyloxy (-O-CO-alkyl) and C 1 -C 6 alkyl groups; A 3 and A 4 are independently phenyl substituted with at least one substituent selected from halo and C 1 -C 6 alkyl; unsubstituted C 5 -C 10 cycloalkyl; or C 5 -C 10 substituted cycloalkyl with at least one substituent selected from halo and C 1 -C 6 alkyl; A 5 , A 6 , A 7 and A 8 are independently hydrogen, C 1 -C 6 alkyl or C 5 -C 10 aryl; o is 1; or the compound of formula 1 is M is a Ru; q is 0; X 3 is Cl; X 4 is Cl; L 4 and L 5 are independently A 1 is hydrogen; and A 2 is phenyl, C 1 -C 3 alkyl or C 2 -C 4 alkenyl with A 2 being substituted with at least one substituent selected from: C 1 -C 6 alkoxy (-O-alkyl), C 2 -C 24 alkylcarbonyloxy (-O-CO-alkyl) and C 1 -C 6 alkyl groups; A 3 and A 4 are independently phenyl substituted with at least one substituent selected from halo and C 1 -C 6 alkyl; unsubstituted C 5 -C 10 cycloalkyl; or C 5 -C 10 substituted cycloalkyl with at least one substituent selected from halo and C 1 -C 6 alkyl; A 5 , A 6 , A 7 and A 8 are independently hydrogen, C 1 -C 6 alkyl or C 5 -C 10 aryl; o is 1; or the compound of formula 1 is
A method at a relay node for providing user agent, UA, encoded data to an access node in a wireless telecommunication system , the relay node and the access node being in communication with each other over a relay link , the method comprising: receiving the UA data from a UA , the relay node and the UA being in communication to each other over an access link ; waiting to detect an acknowledgment, ACK, message from the access node to the UA indicating that the access node has successfully received the UA data, and in an absence of detecting the ACK message: sending the received UA data to the access node and continuing to send the received UA data to the access node until detecting the ACK message from the access node to the UA indicating that the access node has successfully received the UA data; and after detecting the ACK message: stopping sending the received UA data to the access node ; characterized in that the method further comprises receiving, from the access node over the relay link , a request for retransmission of the received UA data in cases where the UA data has not been successfully decoded by the access node , the request being specifically directed to the relay node . receiving the UA data from a UA , the relay node and the UA being in communication to each other over an access link ; waiting to detect an acknowledgment, ACK, message from the access node to the UA indicating that the access node has successfully received the UA data, and in an absence of detecting the ACK message: sending the received UA data to the access node and continuing to send the received UA data to the access node until detecting the ACK message from the access node to the UA indicating that the access node has successfully received the UA data; and after detecting the ACK message: stopping sending the received UA data to the access node ; in an absence of detecting the ACK message: sending the received UA data to the access node and continuing to send the received UA data to the access node until detecting the ACK message from the access node to the UA indicating that the access node has successfully received the UA data; and after detecting the ACK message: stopping sending the received UA data to the access node ; characterized in that the method further comprises receiving, from the access node over the relay link , a request for retransmission of the received UA data in cases where the UA data has not been successfully decoded by the access node , the request being specifically directed to the relay node .
Damper assembly, comprising a damper with a tube (2.1) and a piston (2.2) moveable relative to said tube (2.1) of said damper and an inductive sensor with a stator (4.1) and a cursor (4.2) moveable relative to said stator (4.1) of said inductive sensor , whereat said stator (4.1) is mounted to a support of said damper assembly stationary to said piston (2.2) and whereat said cursor (4.2) is a part of said tube (2.1), wherein said support is built as a dirt cap for said damper of said damper assembly, whereat said dirt cap comprises an inner surface facing said damper and an outer surface (6.2) not facing said damper , and said stator (4.1) is mounted on said outer surface (6.2) of said dirt cap , wherein said dirt cap is built as a tube concentrically positioned to said tube (2.1) of said damper , wherein said cursor (4.2) of said inductive sensor is a part of a separate cover (2.3) of said tube (2.1) of said damper , characterized in that, • said cursor (4.2) of said inductive sensor is built as a ring (4.2), which is mounted to said cover in an electrically insulated manner or which is mounted to said cover (2.3) built from an electrically insulating material, • said cover (2.3) comprises sliders (2.3.1.1) which are protruding from an outer surface (2.3.1) of said cover (2.3) for sliding along said inner surface (6.1) of said dirt cap . wherein said support is built as a dirt cap for said damper of said damper assembly, whereat said dirt cap comprises an inner surface facing said damper and an outer surface (6.2) not facing said damper , and said stator (4.1) is mounted on said outer surface (6.2) of said dirt cap , wherein said dirt cap is built as a tube concentrically positioned to said tube (2.1) of said damper , wherein said cursor (4.2) of said inductive sensor is a part of a separate cover (2.3) of said tube (2.1) of said damper , characterized in that, • said cursor (4.2) of said inductive sensor is built as a ring (4.2), which is mounted to said cover in an electrically insulated manner or which is mounted to said cover (2.3) built from an electrically insulating material, • said cover (2.3) comprises sliders (2.3.1.1) which are protruding from an outer surface (2.3.1) of said cover (2.3) for sliding along said inner surface (6.1) of said dirt cap . • said cursor (4.2) of said inductive sensor is built as a ring (4.2), which is mounted to said cover in an electrically insulated manner or which is mounted to said cover (2.3) built from an electrically insulating material, • said cover (2.3) comprises sliders (2.3.1.1) which are protruding from an outer surface (2.3.1) of said cover (2.3) for sliding along said inner surface (6.1) of said dirt cap .