mhurhangee/patent-ind-claim-en huggingface dataset:
Honeycomb component for forming a patchboard , having a boxshaped housing with two end faces and four side faces extending between the end faces wherein at least two conductor insertion openings are formed in each of the two end faces , to each of which a conductor connection element arranged in the housing is assigned, wherein the side faces each have at least one connecting element for connection to another honeycomb component , and wherein the connecting elements are formed and arranged on opposite side faces (5a, 5c; 5b, 5d) so as to correspond to one another, wherein at least two busbars are arranged in the housing , wherein, in each case, one busbar is electrically conductively connected to a conductor connection element , characterized in that at least two functional shafts are formed in at least one end face , and that at least one opening corresponding to a functional shaft is formed in each of the at least two busbars , so that a plug of a jumper can be inserted through a functional shaft in the end face into the opening in a busbar . wherein at least two conductor insertion openings are formed in each of the two end faces , to each of which a conductor connection element arranged in the housing is assigned, wherein the side faces each have at least one connecting element for connection to another honeycomb component , and wherein the connecting elements are formed and arranged on opposite side faces (5a, 5c; 5b, 5d) so as to correspond to one another, wherein at least two busbars are arranged in the housing , wherein, in each case, one busbar is electrically conductively connected to a conductor connection element , characterized in that at least two functional shafts are formed in at least one end face , and that at least one opening corresponding to a functional shaft is formed in each of the at least two busbars , so that a plug of a jumper can be inserted through a functional shaft in the end face into the opening in a busbar .
Light-guide carrier apparatus , comprising - an injection moulding carrier having a plastic, - a first light-guiding fibre bundle comprising a multiplicity of individual fibres , and - a second light-guiding fibre bundle comprising a multiplicity of individual fibres , - wherein the first and the second light-guiding fibre bundle are embedded in the injection moulding carrier such that they are spaced apart from one another, and - wherein the injection moulding carrier has an attachment rib for attachment to a carrier component , wherein the attachment rib is formed in one piece with the injection moulding carrier . - an injection moulding carrier having a plastic, - a first light-guiding fibre bundle comprising a multiplicity of individual fibres , and - a second light-guiding fibre bundle comprising a multiplicity of individual fibres , - wherein the first and the second light-guiding fibre bundle are embedded in the injection moulding carrier such that they are spaced apart from one another, and - wherein the injection moulding carrier has an attachment rib for attachment to a carrier component , wherein the attachment rib is formed in one piece with the injection moulding carrier .
Catalytic system for electrochemical reduction of CO 2 comprising: a. a bimetallic zinc-copper cathode with an atomic percentage of zinc in the range of 28% to 97%, the bimetallic cathode further optionally further comprising metallic and/or non-metallic additives in atomic percentages equal or less than 1%, wherein the metallic and/or non-metallic additives are selected from Sn, Fe, Pb, their oxides, copper oxides, zinc oxides, Si, C and their mixtures, and where copper and zinc are present in the cathode in the form of solid solution, alloy or particles, including nanoparticles supported on an electric conducting material, wherein the nanoparticles are nanoparticles of Cu 5 Zn 8 , CuZn 2 and their mixtures with nanoparticles of pure copper and/or nanoparticles of pure zinc, b. a hydrophilic ionic liquid-based electrolyte containing water and dissolved CO 2 forming a single phase, in which the molar fraction of ionic liquid lies in the range 0.1-0.6, wherein said ionic liquid consists of cations selected from imidazolium, pyridinium, pyrrolidinium, phosphonium, ammonium, sulfonium, cholines and acetyl cholines, and the anions that are present combined with these cations are selected from tetrafluoroborate, chloride, bromide, iodine, methanesulfonate, acetate, formiate, trifluoroacetate and triflate, the ionic liquid-based electrolyte optionally further comprising an organic additive, and the ionic liquid-based electrolyte being coupled to said bimetallic zinc-copper cathode, and wherein the catalytic system is configured to produce syngas with a cathodic overpotential in the range of 0.1 V - 0.7 V at temperatures between room temperature and 100 °C, and pressures between atmospheric pressure and 100 bar. a. a bimetallic zinc-copper cathode with an atomic percentage of zinc in the range of 28% to 97%, the bimetallic cathode further optionally further comprising metallic and/or non-metallic additives in atomic percentages equal or less than 1%, wherein the metallic and/or non-metallic additives are selected from Sn, Fe, Pb, their oxides, copper oxides, zinc oxides, Si, C and their mixtures, and where copper and zinc are present in the cathode in the form of solid solution, alloy or particles, including nanoparticles supported on an electric conducting material, wherein the nanoparticles are nanoparticles of Cu 5 Zn 8 , CuZn 2 and their mixtures with nanoparticles of pure copper and/or nanoparticles of pure zinc, b. a hydrophilic ionic liquid-based electrolyte containing water and dissolved CO 2 forming a single phase, in which the molar fraction of ionic liquid lies in the range 0.1-0.6, wherein said ionic liquid consists of cations selected from imidazolium, pyridinium, pyrrolidinium, phosphonium, ammonium, sulfonium, cholines and acetyl cholines, and the anions that are present combined with these cations are selected from tetrafluoroborate, chloride, bromide, iodine, methanesulfonate, acetate, formiate, trifluoroacetate and triflate, the ionic liquid-based electrolyte optionally further comprising an organic additive, and the ionic liquid-based electrolyte being coupled to said bimetallic zinc-copper cathode, and
Device for transanal drainage of stool from the rectum of a patient through a catheter-like element comprising a tubular shaft body and an inflatable balloon element , and/or for the transanal administration of an enema fluid through a catheter-like element comprising a tubular shaft body and an inflatable balloon element produced from a thin-walled soft film material of limited elastic deformability under preformation with a waisted shape, having two terminal balloon sections with a larger tubular radius (D 1 /2, D 2 /2) as well as, disposed therebetween, and tapered relative thereto, a middle balloon section provided with a reduced tubular radius, which is placed transanally, such that the distally adjoining radially enlarged balloon section is placed intrarectally and the proximally adjoining radially enlarged balloon section extracorporeally, characterized in that the two balloon ends taper, and are fixed at an axial distance from each other, on a lateral surface of the shaft body , wherein, in the force-free state, the intrarectal balloon section completely surrounds the distal region of the shaft body and is dimensioned such that in the presence of an axial displacement of the shaft body towards the bowel, all attendant deformation of the balloon envelope surrounding the shaft end operates to generate an oppositely acting force that damps and/or limits the movement of the distal end of the shaft body in a distal direction, an wherein the elastic deforming and/or restraightening properties of the shaft body are such that in the presence of a normal sphincter muscle tone bearing against it from the outside, the shaft body transitions into a radially invaginate state or collapses to a size smaller in diameter, but, upon relaxation of the tone of the sphincter muscle, spontaneously erects to its original diameter.
A computer implemented method comprising: receiving formation parameter values associated with a bore of a formation ; receiving a pressure stabilization value for fluid flow at a location in the bore of the formation , wherein the formation parameter values and the pressure stabilization value are determined and received in real-time during delivery of a stimulation treatment via the bore; based at least in part on the formation parameter values and the pressure stabilization value, calculating a skin factor value for the location in the bore ; and outputting the calculated skin factor value for use in real-time adjustment of the stimulation treatment. receiving formation parameter values associated with a bore of a formation ; receiving a pressure stabilization value for fluid flow at a location in the bore of the formation , wherein the formation parameter values and the pressure stabilization value are determined and received in real-time during delivery of a stimulation treatment via the bore; based at least in part on the formation parameter values and the pressure stabilization value, calculating a skin factor value for the location in the bore ; and outputting the calculated skin factor value for use in real-time adjustment of the stimulation treatment.
Device for cutting products in the form of sheets, plates, panels, bands or the like, in particular plates or panels made from foamed, woody or fibrous material, said device comprising on the one hand a base body providing a support surface for the product to be cut, on the other hand a guiding body which comes into movable engagement with the base body and extends above the product to be cut and lastly a cutting element comprising a blade and a manipulation handle , said product to be cut being arranged between the guiding body and the base body which together form a cutting bench and said cutting element being guided in a sliding manner by the base body and guiding body during a cutting operation of a product , the device being characterised in that the guiding body has an overall U shape on the one hand with a central elongated part designed to bear on a product to be cut resting itself on the support surface and on the other hand two opposite end strips designed to come into sliding engagement with corresponding sites (3") of the base body , so as hold products of different thicknesses in a sandwich-like manner by pinching between the base body and guiding body , the central part of the guiding body and the main part of the base body providing the support surface comprise slots (9 and 9') that are mutually aligned and coincide in the assembled state of two bodies (3 and 4), and the blade of the cutting element is sufficiently long to slide in a traversing manner into the two slots (9 and 9') during a cutting operation of a product .
A portable container for water comprising: a removable water filter cartridge comprising one or more fibre membranes which are effective to pass water in preference to air under the influence of a pressure differential; a container housing for holding water, the housing having a base , side walls (12-15) and a top wall , wherein the base incorporates a seat to receive the water filter cartridge to resist lateral movement; an output valve coupled to the water filter cartridge ; and a pump for raising the internal pressure of the container housing , wherein the container housing comprises a main volume within which the fibre membranes of the water filter cartridge extend and a header volume above the water filter cartridge . a removable water filter cartridge comprising one or more fibre membranes which are effective to pass water in preference to air under the influence of a pressure differential; a container housing for holding water, the housing having a base , side walls (12-15) and a top wall , wherein the base incorporates a seat to receive the water filter cartridge to resist lateral movement; an output valve coupled to the water filter cartridge ; and a pump for raising the internal pressure of the container housing ,
A method performed by a Wireless Communication Device, WCD, , the method comprising: • receiving a Physical Downlink Control Channel, PDCCH, comprising Downlink Control Information, DCI, that indicates: ∘ two Transmission Configuration Indication, TCI, states for a Physical Downlink Shared Channel, PDSCH, transmission to the WCD ; and ∘ Demodulation Reference Signal, DMRS, ports within a single Code Division Multiplexing, CDM, group; and • receiving a single Phase Tracking Reference Signal, PTRS, port for the PDSCH transmission, wherein the single PTRS port is associated with a lowest indexed DMRS port in the DMRS ports indicated in the DCI, • wherein a lowest indexed DMRS port in the DMRS ports indicated in the DCI is: (a) associated with a first TCI state from among the two TCI states for the PDSCH transmission in PDSCH resources allocated for the first TCI state and (b) associated with a second TCI state from among the two TCI states for the PDSCH transmission in PDSCH resources allocated for the second TCI state, • wherein the single PTRS port is one of two PTRS ports configured for the WCD and wherein the WCD is scheduled with two codewords, and • wherein a PTRS port to DMRS port association for each TCI state is determined from a subset of DMRS ports that belong to the codeword that has the highest Modulation and Coding Scheme, MCS. • receiving a Physical Downlink Control Channel, PDCCH, comprising Downlink Control Information, DCI, that indicates: ∘ two Transmission Configuration Indication, TCI, states for a Physical Downlink Shared Channel, PDSCH, transmission to the WCD ; and ∘ Demodulation Reference Signal, DMRS, ports within a single Code Division Multiplexing, CDM, group; and ∘ two Transmission Configuration Indication, TCI, states for a Physical Downlink Shared Channel, PDSCH, transmission to the WCD ; and ∘ Demodulation Reference Signal, DMRS, ports within a single Code Division Multiplexing, CDM, group; and • receiving a single Phase Tracking Reference Signal, PTRS, port for the PDSCH transmission, wherein the single PTRS port is associated with a lowest indexed DMRS port in the DMRS ports indicated in the DCI, • wherein a lowest indexed DMRS port in the DMRS ports indicated in the DCI is: (a) associated with a first TCI state from among the two TCI states for the PDSCH transmission in PDSCH resources allocated for the first TCI state and (b) associated with a second TCI state from among the two TCI states for the PDSCH transmission in PDSCH resources allocated for the second TCI state, • wherein the single PTRS port is one of two PTRS ports configured for the WCD and wherein the WCD is scheduled with two codewords, and • wherein a PTRS port to DMRS port association for each TCI state is determined from a subset of DMRS ports that belong to the codeword that has the highest Modulation and Coding Scheme, MCS.
A domestic appliance, in particular a cooking oven, inserted in or insertable into furniture, said domestic appliance comprises a fastening system for fixing said domestic appliance in furniture, wherein: - the fastening system comprises at least one fastening element , - the fastening element is formed as an L-shaped profile part and includes a long portion and a short portion , - the long portion of the fastening element is fixable or fixed at an inner side of a wall of the furniture, while the short portion of the fastening element is arrangeable or arranged in front of a front side of said wall of the furniture, - the fastening element includes a snap-in mechanism arranged at or in front of the short portion of said fastening element , - the snap-in mechanism is engageable or engaged with a front frame of the domestic appliance, - the snap-in mechanism includes at least one snap-in hook engageable or engaged with a cut-out or an undercut of the front frame of the domestic appliance, - said snap-in hook is charged by at least one spring element, and - the snap-in hook extends away from the long portion of the fastening element and radially in view of a front opening of the furniture, when the fastening element is fixed at the wall of the furniture. - the fastening system comprises at least one fastening element , - the fastening element is formed as an L-shaped profile part and includes a long portion and a short portion , - the long portion of the fastening element is fixable or fixed at an inner side of a wall of the furniture, while the short portion of the fastening element is arrangeable or arranged in front of a front side of said wall of the furniture, - the fastening element includes a snap-in mechanism arranged at or in front of the short portion of said fastening element , - the snap-in mechanism is engageable or engaged with a front frame of the domestic appliance, - the snap-in mechanism includes at least one snap-in hook engageable or engaged with a cut-out or an undercut of the front frame of the domestic appliance, - said snap-in hook is charged by at least one spring element, and - the snap-in hook extends away from the long portion of the fastening element and radially in view of a front opening of the furniture, when the fastening element is fixed at the wall of the furniture.
An electrochemical system for generating hydrogen gas and oxygen gas, the system comprising: two or more electrochemical thermally activated chemical (ETAC) cells , each configured for holding an aqueous solution and comprising at least one electrode assembly, each having a cathode electrode and an anode electrode; said two or more ETAC cells being configured to generate hydrogen gas in the presence of electrical bias, and generate oxygen gas in the absence of bias, and a control unit configured to operate the two or more cells in accordance with a predetermined operational pattern to generate hydrogen gas in some of the cells and to simultaneously generate oxygen gas in other cells. two or more electrochemical thermally activated chemical (ETAC) cells , each configured for holding an aqueous solution and comprising at least one electrode assembly, each having a cathode electrode and an anode electrode; said two or more ETAC cells being configured to generate hydrogen gas in the presence of electrical bias, and generate oxygen gas in the absence of bias, and a control unit configured to operate the two or more cells in accordance with a predetermined operational pattern to generate hydrogen gas in some of the cells and to simultaneously generate oxygen gas in other cells.
Compositions comprising A) nylon-6 and/or nylon-6,6, B) at least one aluminium salt of phosphonic acid, C) at least one polyhydric alcohol having at least 3 alcohol groups and a molecular weight above 200 g/mol, D) one or more organic phosphinic salts of the formula (I) and/or one or more diphosphinic salts of the formula (II) and/or polymers thereof, in which R 1 , R 2 are the same or different and are each a linear or branched C 1 -C 6 -alkyl, and/or C 6 -C 14 -aryl, R 3 is linear or branched C 1 -C 10 alkylene, C 6 -C 10 arylene or C 1 -C 6 alkyl-C 6 -C 10 arylene or C 6 -C 10 aryl-C 1 -C 6 alkylene, M is aluminium, zinc or titanium, m is an integer from 1 to 4, n is an integer from 1 to 3, x is 1 and 2, where n, x and m in formula (II) may at the same time adopt only such integer values that the diphosphinic salt of the formula (II) as a whole is uncharged, and dipentaerythritol or tripentaerythritol is used as component C), and 1 to 40 parts by mass of component B), 0.1 to 15 parts by mass of component C) and 5 to 150 parts by mass of component D) are used per 100 parts by mass of component A). A) nylon-6 and/or nylon-6,6, B) at least one aluminium salt of phosphonic acid, C) at least one polyhydric alcohol having at least 3 alcohol groups and a molecular weight above 200 g/mol, D) one or more organic phosphinic salts of the formula (I) and/or one or more diphosphinic salts of the formula (II) and/or polymers thereof, in which R 1 , R 2 are the same or different and are each a linear or branched C 1 -C 6 -alkyl, and/or C 6 -C 14 -aryl, R 3 is linear or branched C 1 -C 10 alkylene, C 6 -C 10 arylene or C 1 -C 6 alkyl-C 6 -C 10 arylene or C 6 -C 10 aryl-C 1 -C 6 alkylene, M is aluminium, zinc or titanium, m is an integer from 1 to 4, n is an integer from 1 to 3, x is 1 and 2, where n, x and m in formula (II) may at the same time adopt only such integer values that the diphosphinic salt of the formula (II) as a whole is uncharged, and dipentaerythritol or tripentaerythritol is used as component C), and 1 to 40 parts by mass of component B), 0.1 to 15 parts by mass of component C) and 5 to 150 parts by mass of component D) are used per 100 parts by mass of component A). R 1 , R 2 are the same or different and are each a linear or branched C 1 -C 6 -alkyl, and/or C 6 -C 14 -aryl, R 3 is linear or branched C 1 -C 10 alkylene, C 6 -C 10 arylene or C 1 -C 6 alkyl-C 6 -C 10 arylene or C 6 -C 10 aryl-C 1 -C 6 alkylene, M is aluminium, zinc or titanium, m is an integer from 1 to 4, n is an integer from 1 to 3, x is 1 and 2,
Method for forming door panels in different models which differ at least in the curvature of a front plate , with the steps: a) providing a blank , b) forming an intermediate edge that extends in the longitudinal direction of a first flank of the door panel and divides the flank , c) forming a first front edge , which delimits the front plate from the first flank of the door panel , d) forming a first bent area on an upper or lower edge of the blank , which crosses the first front edge of the door panel , characterised in that the front edge is formed with an identical cross-section in models with a front plate with differing curvature and the intermediate edge is formed with a different cross-section in models with a front plate with differing curvature. a) providing a blank , b) forming an intermediate edge that extends in the longitudinal direction of a first flank of the door panel and divides the flank , c) forming a first front edge , which delimits the front plate from the first flank of the door panel , d) forming a first bent area on an upper or lower edge of the blank , which crosses the first front edge of the door panel ,
Infill material for a synthetic turf surface , said infill material comprising a plurality of particles each one comprising: - a polymeric matrix made of a polymeric material selected in the group: polylactic acid (PLA), polybutylene adipate terephthalate (PBAT), polyglycolic acid (PGA), polycaprolactone (PCL), poly(lactic-co-glycolic) acid (PLGA), poly-(2-hydroxyethylmethacrylate), poly-ethylene-glycol (PEG), chitosan, hyaluronic acid, a poly-hydroxy-alkanoate (PHA), or combinations thereof; - a reinforcing filler dispersed in said polymeric matrix, the reinforcing filler being made of a plant material, wherein the infill material is a mixture comprising said particles and further infill particles, characterized in that said further infill particles are olive pits. - a polymeric matrix made of a polymeric material selected in the group: polylactic acid (PLA), polybutylene adipate terephthalate (PBAT), polyglycolic acid (PGA), polycaprolactone (PCL), poly(lactic-co-glycolic) acid (PLGA), poly-(2-hydroxyethylmethacrylate), poly-ethylene-glycol (PEG), chitosan, hyaluronic acid, a poly-hydroxy-alkanoate (PHA), or combinations thereof; - a reinforcing filler dispersed in said polymeric matrix, the reinforcing filler being made of a plant material, the infill material is a mixture comprising said particles and further infill particles, characterized in that said further infill particles are olive pits.