mhurhangee/patent-ind-claim-en huggingface dataset:
Cleaning appliance for cleaning a surface ; wherein the cleaning appliance comprises - a housing with a suction duct and a suction opening connecting to the suction duct; wherein the suction opening faces towards the surface to be cleaned during cleaning operation of the cleaning appliance ; - a cleaning roller which is arranged in the suction duct and is configured to rotate about an axis of rotation of the cleaning roller during cleaning operation; and - a protective grating which is fastened to the housing in a moveable manner and is configured, in a closed position, to cover the suction opening and the cleaning roller at least in regions, and in an opened position to enable a removal of the cleaning roller from the suction duct; characterised in that the protective grating is embodied to snap in in the opened position, so that the protective grating remains in the opened position. - a housing with a suction duct and a suction opening connecting to the suction duct; wherein the suction opening faces towards the surface to be cleaned during cleaning operation of the cleaning appliance ; - a cleaning roller which is arranged in the suction duct and is configured to rotate about an axis of rotation of the cleaning roller during cleaning operation; and - a protective grating which is fastened to the housing in a moveable manner and is configured, in a closed position, to cover the suction opening and the cleaning roller at least in regions, and in an opened position to enable a removal of the cleaning roller from the suction duct;
An anisotropic conductive film, comprising: a crystalline resin; an amorphous resin; and conductive particles, wherein the anisotropic conductive film is an anisotropic conductive film configured to anisotropic conductively connect a terminal of a first electronic part and a terminal of a second electronic part, wherein the crystalline resin contains a crystalline resin containing a bond characterizing a resin, which is identical to a bond characterizing a resin contained in the amorphous resin, and wherein the anisotropic conductive film satisfies the following formula: Δ ⁢ T 1 > Δ ⁢ T 2 where ΔT1 is an absolute value of a difference between melting onset temperature and endothermic peak temperature at the time of heating, and ΔT2 is an absolute value of a difference between crystallization onset temperature and exothermic peak temperature at the time of cooling, as the anisotropic conductive film is measured by differential scanning calorimetry with the following measuring temperature range, the following heating speed, and the following cooling speed: Measuring temperature range: 30°C to 250°C; Heating speed: 10 °C/min; and Cooling speed: 20 °C/min. a crystalline resin; an amorphous resin; and conductive particles, wherein the anisotropic conductive film is an anisotropic conductive film configured to anisotropic conductively connect a terminal of a first electronic part and a terminal of a second electronic part, wherein the crystalline resin contains a crystalline resin containing a bond characterizing a resin, which is identical to a bond characterizing a resin contained in the amorphous resin, and wherein the anisotropic conductive film satisfies the following formula: Δ ⁢ T 1 > Δ ⁢ T 2 where ΔT1 is an absolute value of a difference between melting onset temperature and endothermic peak temperature at the time of heating, and ΔT2 is an absolute value of a difference between crystallization onset temperature and exothermic peak temperature at the time of cooling, as the anisotropic conductive film is measured by differential scanning calorimetry with the following measuring temperature range, the following heating speed, and the following cooling speed: Measuring temperature range: 30°C to 250°C; Heating speed: 10 °C/min; and Cooling speed: 20 °C/min. Measuring temperature range: 30°C to 250°C; Heating speed: 10 °C/min; and Cooling speed: 20 °C/min.
A user equipment, UE , configured to operate in an evolved universal mobile telecommunication system terrestrial radio access, EUTRAN, radio access technology, RAT, being configured to apply performance requirements for increased frequency layer monitoring divided into two performance groups, denoted as normal-performance (g1) and reduced-performance groups, which result in a normal-performance group (g1) of frequency layers and a reduced-performance group (g2) of frequency layers, comprising: a communication module configured to: for each frequency layer associated with the UE of a total number, N freq , of frequency layers to be measured by the UE other than a primary frequency layer and one or more secondary frequency layers, assign that frequency layer to one of the normal-performance group (g1) or the reduced-performance group (g2), wherein a number of frequency layers in the normal-performance group (g1) plus a number of frequency layers in the reduced-performance group (g2) is equal to N freq , wherein N freq is an integer greater than eight, wherein each frequency layer is one of an inter-frequency layer or an inter-RAT frequency layer, wherein the number of frequency layers in the normal-performance group (g1) is configured at the UE by a signal from a base station, BS and wherein each frequency layer associated with the UE does not comprise a serving frequency layer between the UE and the BS; and perform a configured measurement type on each frequency layer assigned to the normal-performance group (g1) according to a measurement gap repetition period, MGRP, and according to a number of measurement gaps derived from the MGRP and the number of frequency layers in the normal-performance group (g1). for each frequency layer associated with the UE of a total number, N freq , of frequency layers to be measured by the UE other than a primary frequency layer and one or more secondary frequency layers, assign that frequency layer to one of the normal-performance group (g1) or the reduced-performance group (g2), wherein a number of frequency layers in the normal-performance group (g1) plus a number of frequency layers in the reduced-performance group (g2) is equal to N freq , wherein N freq is an integer greater than eight, wherein each frequency layer is one of an inter-frequency layer or an inter-RAT frequency layer, wherein the number of frequency layers in the normal-performance group (g1) is configured at the UE by a signal from a base station, BS and wherein each frequency layer associated with the UE does not comprise a serving frequency layer between the UE and the BS; and perform a configured measurement type on each frequency layer assigned to the normal-performance group (g1) according to a measurement gap repetition period, MGRP, and according to a number of measurement gaps derived from the MGRP and the number of frequency layers in the normal-performance group (g1).
Device comprising: - a transfer substrate comprising electric connection elements; and - a plurality of elementary chips bonded and electrically connected to the transfer substrate , each elementary chip comprising at least one photodetector (D1) and an electronic circuit for reading from said at least one photodetector (D1), the device further comprising, associated with at least one elementary chip , an emission, capture, or actuation element (LR, LG, LB) external to the elementary chip , bonded and electrically connected to the transfer substrate , characterized in that each elementary chip comprises an electronic circuit for controlling the emission, capture, or actuation element (LR, LG, LB) associated with the chip. - a transfer substrate comprising electric connection elements; and - a plurality of elementary chips bonded and electrically connected to the transfer substrate , each elementary chip comprising at least one photodetector (D1) and an electronic circuit for reading from said at least one photodetector (D1),
Excavator comprising at least: - a frame , - a platform on top of the frame , - a hydraulic circuit assembly including at least: - a main pump delivering pressurized fluid - a number of hydraulic actuators - a hydraulic distribution system for distributing pressurized fluid from the main pump to the various hydraulic actuators according at least to a hydraulic pilot circuit comprising at least one manually operated hydraulic pilot valve unit connected to the hydraulic distribution device , and wherein: - the hydraulic distribution system is received on top of the frame but below the platform , while the pilot valve unit is at least partly received on top of the platform, - the pilot valve unit is hydraulically connected to the hydraulic distribution system by hydraulic pipes; - the platform comprises a dedicated hole capable of receiving therethrough at least that part of the pilot valve unit which is received on top of the platform; - the pilot valve unit is fixed, directly or indirectly , on the platform such that the unit or the hydraulic pipes extend through the hole; wherein the pilot valve unit can be mounted from below the platform , through the dedicated hole, and is fixed on the platform from above the platform, characterized in that the pilot valve unit is blocked downwardly with respect to the platform by a key part which can be inserted from above the platform between a downwardly facing surface of the pilot valve unit and an upwardly facing surface of the platform . - a frame , - a platform on top of the frame , - a hydraulic circuit assembly including at least: - a main pump delivering pressurized fluid - a number of hydraulic actuators - a hydraulic distribution system for distributing pressurized fluid from the main pump to the various hydraulic actuators according at least to a hydraulic pilot circuit comprising at least one manually operated hydraulic pilot valve unit connected to the hydraulic distribution device , - a main pump delivering pressurized fluid - a number of hydraulic actuators - a hydraulic distribution system for distributing pressurized fluid from the main pump to the various hydraulic actuators according at least to a hydraulic pilot circuit comprising at least one manually operated hydraulic pilot valve unit connected to the hydraulic distribution device , - the hydraulic distribution system is received on top of the frame but below the platform , while the pilot valve unit is at least partly received on top of the platform, - the pilot valve unit is hydraulically connected to the hydraulic distribution system by hydraulic pipes; - the platform comprises a dedicated hole capable of receiving therethrough at least that part of the pilot valve unit which is received on top of the platform; - the pilot valve unit is fixed, directly or indirectly , on the platform such that the unit or the hydraulic pipes extend through the hole;
A heat transfer fluid concentrate comprising: greater than 90 weight percent of a freezing point depressant; 16 to 80 ppm of magnesium ions; an azole compound; an inorganic phosphate; a carboxylate; and an acrylate based polymer, wherein the weight ratio of acrylate based polymer to magnesium ions is 1 to 25; and wherein the heat transfer fluid concentrate has a pH of 7 to 9.5 and is free from silicate, borate and amines; and wherein nitrate, if present, is in an amount of less than 50 ppm. greater than 90 weight percent of a freezing point depressant; 16 to 80 ppm of magnesium ions; an azole compound; an inorganic phosphate; a carboxylate; and an acrylate based polymer, wherein the weight ratio of acrylate based polymer to magnesium ions is 1 to 25; and wherein the heat transfer fluid concentrate has a pH of 7 to 9.5 and is free from silicate, borate and amines; and wherein nitrate, if present, is in an amount of less than 50 ppm.
An apparatus comprising a plurality of agents that each set some devices among a plurality of devices provided in a facility to be target devices, wherein each of the plurality of agents includes: a state acquiring section that acquires state data indicating a state of the facility ; a control condition acquiring section that acquires control condition data indicating a control condition of each target device; and a learning processing section that uses learning data including the state data and the control condition data to perform learning processing of a model that outputs recommended control condition data indicating a control condition recommended for each target device in response to input of the state data, wherein the state acquiring section of at least one agent among the plurality of agents acquires the state data that further includes control condition data indicating a control condition of a device that is not a target device of the at least one agent among the plurality of devices. a state acquiring section that acquires state data indicating a state of the facility ; a control condition acquiring section that acquires control condition data indicating a control condition of each target device; and a learning processing section that uses learning data including the state data and the control condition data to perform learning processing of a model that outputs recommended control condition data indicating a control condition recommended for each target device in response to input of the state data, wherein the state acquiring section of at least one agent among the plurality of agents acquires the state data that further includes control condition data indicating a control condition of a device that is not a target device of the at least one agent among the plurality of devices.
Multi-chamber hollow profile with an outer wall , comprising at least one fire protection material chamber completely or partially filled with fire protection material and at least one receiving hollow chamber , for use in fire protection structures, in particular in fire resistant frames for fire protection elements, for example as an insert or slide-in element in a fire resistant glazing frame , wherein the at least one receiving hollow chamber : - is arranged inside the multi-chamber hollow profile , - is completely or predominantly surrounded by the at least one fire protection material chamber ; - has at least one end face which is arranged in the region of the outer wall or the end faces of the multi-chamber hollow profile , so that the at least one receiving hollow chamber is accessible from outside the multi-chamber hollow profile ; and - is separated from the at least one fire-protection material chamber , which completely or predominantly surrounds it, by a wall which is at least largely impermeable to the fire-protection material characterized in that the wall of the at least one receiving hollow chamber extends perpendicularly, transversely or obliquely to the main axis of the multi-chamber hollow profile and the outer wall extends parallel to the main axis of the multi-chamber hollow profile and the end faces of the receiving hollow chamber are arranged substantially parallel to the main axis of the multi-chamber hollow profile . - is arranged inside the multi-chamber hollow profile , - is completely or predominantly surrounded by the at least one fire protection material chamber ; - has at least one end face which is arranged in the region of the outer wall or the end faces of the multi-chamber hollow profile , so that the at least one receiving hollow chamber is accessible from outside the multi-chamber hollow profile ; and - is separated from the at least one fire-protection material chamber , which completely or predominantly surrounds it, by a wall which is at least largely impermeable to the fire-protection material
A method for cultivating ovine IgG positive B-cells, characterized in that the method comprises the following step: cultivating ovine IgG positive B-cells in the presence of phorbol myristate acetate (PMA), wherein the B-cells were obtained from peripheral blood mononuclear cells or the pool of B-cells is enriched from peripheral blood mononuclear cells. cultivating ovine IgG positive B-cells in the presence of phorbol myristate acetate (PMA), wherein the B-cells were obtained from peripheral blood mononuclear cells or the pool of B-cells is enriched from peripheral blood mononuclear cells.
A crosslinkable polymeric composition comprising: (a) 10 to 99 weight percent, based on the total weight of said crosslinkable polymeric composition, of an ethylene-based interpolymer having the following properties: (i) a density of 0.91 g/cm 3 or less, (ii) a high-shear viscosity (V100) at 190 °C and 10 % strain of 1,200 Pa·s or less, and (iii) a shear thinning ratio (V0.1/V100) at 190 °C and 10 % strain of at least 8; and (b) 0 to less than 10 weight percent, based on the total weight of said crosslinkable polymeric composition, of a filler; wherein said ethylene-based interpolymer is not prepared in a high-pressure reactor or process. (a) 10 to 99 weight percent, based on the total weight of said crosslinkable polymeric composition, of an ethylene-based interpolymer having the following properties: (i) a density of 0.91 g/cm 3 or less, (ii) a high-shear viscosity (V100) at 190 °C and 10 % strain of 1,200 Pa·s or less, and (iii) a shear thinning ratio (V0.1/V100) at 190 °C and 10 % strain of at least 8; and (i) a density of 0.91 g/cm 3 or less, (ii) a high-shear viscosity (V100) at 190 °C and 10 % strain of 1,200 Pa·s or less, and (iii) a shear thinning ratio (V0.1/V100) at 190 °C and 10 % strain of at least 8; and (b) 0 to less than 10 weight percent, based on the total weight of said crosslinkable polymeric composition, of a filler;
A method of preparing a catalyst comprising: a) contacting a non-aqueous solvent, a carboxylic acid, and a chromium-containing compound to form an acidic mixture wherein a volumetric ratio of non-aqueous solvent to carboxylic acid is from 1:1 to 100:1; b) forming a titanium treatment solution by contacting a titanium-containing compound with the acidic mixture of step a) to form the titanium treatment solution; c) contacting a pre-formed silica-support comprising from 0.1 wt.% to 20 wt.% water with the titanium treatment solution to form a pre-catalyst; and d) thermally treating the pre-catalyst by heating to a temperature of from 400 °C to 1000 °C for a time period of from 1 minute to 24 hours to form the catalyst. a) contacting a non-aqueous solvent, a carboxylic acid, and a chromium-containing compound to form an acidic mixture wherein a volumetric ratio of non-aqueous solvent to carboxylic acid is from 1:1 to 100:1; b) forming a titanium treatment solution by contacting a titanium-containing compound with the acidic mixture of step a) to form the titanium treatment solution; c) contacting a pre-formed silica-support comprising from 0.1 wt.% to 20 wt.% water with the titanium treatment solution to form a pre-catalyst; and d) thermally treating the pre-catalyst by heating to a temperature of from 400 °C to 1000 °C for a time period of from 1 minute to 24 hours to form the catalyst.
A wire harness comprising: a harness main body including one or a plurality of conductive paths and an exterior member through which the one or a plurality of conductive paths is inserted; a packing bent portion arranged in a middle of the harness main body and used as a bent portion at a position suitable for packing the wire harness ; and a routing path regulating portion arranged at the position suitable for packing the wire harness and configured to regulate the wire harness at a desired path when routing the wire harness , characterized in that the exterior member includes a joint mechanism in accordance with the position suitable for packing the wire harness , wherein the joint mechanism includes one divided portion and another divided portion that are arranged with a distance to each other in an axial direction of the exterior member , a base portion arranged so as to overlap the one divided portion and the other divided portion , one rotating shaft portion for making the one divided portion rotatable with respect to one end of the base portion , and another rotating shaft portion for making the other divided portion rotatable with respect to the other end of the base portion , wherein the packing bent portion is formed when the one divided portion and the other divided portion are arranged in a substantially folded state, and wherein the routing path regulating portion is arranged at the position suitable for packing the wire harness when the one divided portion and the other divided portion are arranged in a substantially linear shape by the joint mechanism . a harness main body including one or a plurality of conductive paths and an exterior member through which the one or a plurality of conductive paths is inserted; a packing bent portion arranged in a middle of the harness main body and used as a bent portion at a position suitable for packing the wire harness ; and a routing path regulating portion arranged at the position suitable for packing the wire harness and configured to regulate the wire harness at a desired path when routing the wire harness , characterized in that the exterior member includes a joint mechanism in accordance with the position suitable for packing the wire harness , wherein the joint mechanism includes one divided portion and another divided portion that are arranged with a distance to each other in an axial direction of the exterior member , a base portion arranged so as to overlap the one divided portion and the other divided portion , one rotating shaft portion for making the one divided portion rotatable with respect to one end of the base portion , and another rotating shaft portion for making the other divided portion rotatable with respect to the other end of the base portion , wherein the packing bent portion is formed when the one divided portion and the other divided portion are arranged in a substantially folded state, and wherein the routing path regulating portion is arranged at the position suitable for packing the wire harness when the one divided portion and the other divided portion are arranged in a substantially linear shape by the joint mechanism .