mhurhangee/ep-ind-claims huggingface dataset:
A method for increasing hydrocarbon chain length, comprising the steps of: (i) providing a feedstock comprising fatty acids and/or fatty acid esters with hydrocarbon chain length below C23, and (ii) introducing said feedstock with a flow rate from 0.1 to 10 h -1 into a reaction zone having a temperature of 200 to 450 °C in which ketonisation of said fatty acids and/or fatty acid esters is conducted in the presence of a hydrotreatment catalyst which is selected as a metal catalyst wherein the metal is selected from the group consisting of Fe, Pd, Pt, Ni, Mo, Co, Ru, Rh, W and any combination thereof under hydrogen pressure of less than 2.0 MPa, and wherein the ratio of hydrogen to feedstock is from 100 to 600 Nl/l in the ketonisation reaction zone, and (iii) obtaining from said reaction zone ketones with hydrocarbon chain length of from C24 to C43. (i) providing a feedstock comprising fatty acids and/or fatty acid esters with hydrocarbon chain length below C23, and (ii) introducing said feedstock with a flow rate from 0.1 to 10 h -1 into a reaction zone having a temperature of 200 to 450 °C in which ketonisation of said fatty acids and/or fatty acid esters is conducted in the presence of a hydrotreatment catalyst which is selected as a metal catalyst wherein the metal is selected from the group consisting of Fe, Pd, Pt, Ni, Mo, Co, Ru, Rh, W and any combination thereof under hydrogen pressure of less than 2.0 MPa, and wherein the ratio of hydrogen to feedstock is from 100 to 600 Nl/l in the ketonisation reaction zone, and (iii) obtaining from said reaction zone ketones with hydrocarbon chain length of from C24 to C43.
A magnetic particle, comprising: a knobby copolymer core, a polymer layer, covering the knobby copolymer core and having at least one functional group; a magnetic substance layer, covering the polymer layer; and a silicon-based layer, covering the magnetic substance layer, characterised in that the knobby copolymer core comprises a plurality of protrusions with an average height (h 1 -h 3) of 100-5000nm. a knobby copolymer core, a polymer layer, covering the knobby copolymer core and having at least one functional group; a magnetic substance layer, covering the polymer layer; and a silicon-based layer, covering the magnetic substance layer, characterised in that the knobby copolymer core comprises a plurality of protrusions with an average height (h 1 -h 3) of 100-5000nm.
A pharmaceutical composition comprising a pharmaceutically acceptable carrier and particles which comprise (a) a core comprising one or more biodegradable polymers; (b) a shell comprising hyperbranched polyglycerol; and (c) an anti-cancer agent; wherein the one or more biodegradable polymers are more hydrophobic than the hyperbranched polyglycerol; and wherein the hyperbranched polyglycerol is covalently bound to the one or more biodegradable polymers, and the hyperbranched polyglycerol is otherwise unmodified. (a) a core comprising one or more biodegradable polymers; (b) a shell comprising hyperbranched polyglycerol; and (c) an anti-cancer agent; wherein the one or more biodegradable polymers are more hydrophobic than the hyperbranched polyglycerol; and wherein the hyperbranched polyglycerol is covalently bound to the one or more biodegradable polymers, and the hyperbranched polyglycerol is otherwise unmodified.
A combined battery lid for a mobile communications terminal comprising: - a metallic battery lid having an insulation material, characterized in that - the insulation material is a plastic layer; - the combined battery lid further comprises a side grounded structure that comprises an elastic contact sheet set between the metallic battery lid (210; 310) and the plastic layer; - said elastic contact sheet being electrically connected to the metallic battery lid and having a curved contact section used to connect a grounded down-lead of a circuit board. - a metallic battery lid having an insulation material, - the insulation material is a plastic layer; - the combined battery lid further comprises a side grounded structure that comprises an elastic contact sheet set between the metallic battery lid (210; 310) and the plastic layer; - said elastic contact sheet being electrically connected to the metallic battery lid and having a curved contact section used to connect a grounded down-lead of a circuit board.
A method for preparing a bottle by two-stage injection-stretch-blow-moulding (ISBM) that comprises the steps of: a) selecting a polypropylene resin produced with a Ziegler-Natta catalyst system and having a melt flow index MI2 of from 1 to 20 dg/min; b) injecting the polypropylene resin of step a) in a mould at a melt temperature of at least 265 °C and at an injection rate of at most 20 g/s to prepare a preform; c) cooling the preform to room temperature; d) transporting the preform to the stretch-blow moulding machine; e) re-heating the preform in the stretch-blow moulding machine in a reflective radiant heat oven following a pre-determined temperature profile for the preform; f) stretching the preform axially by a centre rod and simultaneously orienting the stretched preform radially by high pressure air wherein the rod diameter is selected to be 2/3 of that of the preform. a) selecting a polypropylene resin produced with a Ziegler-Natta catalyst system and having a melt flow index MI2 of from 1 to 20 dg/min; b) injecting the polypropylene resin of step a) in a mould at a melt temperature of at least 265 °C and at an injection rate of at most 20 g/s to prepare a preform; c) cooling the preform to room temperature; d) transporting the preform to the stretch-blow moulding machine; e) re-heating the preform in the stretch-blow moulding machine in a reflective radiant heat oven following a pre-determined temperature profile for the preform; f) stretching the preform axially by a centre rod and simultaneously orienting the stretched preform radially by high pressure air wherein the rod diameter is selected to be 2/3 of that of the preform.
A wing rail (14, 16) for connecting to a frog block with a rigid frog tip, wherein the wing rail (14, 16) is connectable by means of spacer elements (1, 46, 48, 50, 52, 54, 56, 58, 60, 66, 68) to the frog block, wherein in the connected state, a wheel overrunning region runs between the frog block and the wing rail (14, 16) in the region of the frog tip, wherein the wing rail (14, 16) has or consists of a section (22, 24) extending at least over the length of the wheel overrunning region, and wherein the section is produced from a forged block, characterized in that the section (22, 24) is produced with integrally fabricated spacer elements (1, 46, 48, 50, 52, 54, 56, 58, 60), and that the section (22, 24) can be connected to the frog block via the spacer elements (1, 46, 48, 50, 52, 54, 56, 58, 60) and screw connections (42, 64) passing through the frog block.
A connecting element (1, 101) for a sunscreen device, comprising a retaining element (2, 102), a bearing element (3, 103) and a supporting element (4, 104), wherein the supporting element (4, 104) includes a guide rail for a hanging, wherein the supporting element (4, 104) extends from the bottom side up into the region of the top of a building opening, wherein the supporting element (4, 104) carries the bearing element (3, 103), wherein, in the assembled condition, the retaining element (2, 102) is received in the bearing element (3, 103), wherein the retaining element (2, 102) is retained in the bearing element (3, 103) by a latching element, characterised in that the bearing element (3, 103) has a vertical leg and a horizontal leg, wherein the horizontal leg rests on the supporting element (4, 104), wherein the vertical leg includes an angular portion which encloses an acute angle with the vertical plane.
A time measurement device comprising: a plurality of pixels (30; 60) provided side by side in a first direction, and each including a single-photon avalanche diode disposed on a first semiconductor substrate, and each configured to generate a first logic signal depending on detection timing in the single-photon avalanche diode; and a time measurement section that is disposed on a second semiconductor substrate attached to the first semiconductor substrate and configured to measure the detection timing in each of the plurality of pixels, pixels, other than a first pixel disposed on an end in the first direction and out of the plurality of pixels (30; 60), each pixel configured to generate an output signal on a basis of an output signal of an antecedent pixel and on a basis of the first logic signals generated in the pixel, and the time measurement section configured to measure the detection timing in each of the plurality of pixels (30; 60) on a basis of an output signal of a second pixel disposed on another end in the first direction out of the plurality of pixels (30; 60), wherein the pixels, other than the first pixel and out of the plurality of pixels (30; 60), each include a first logic circuit (36; 66), the first logic circuit (36; 66) being disposed on the second semiconductor substrate and having a first input terminal, a second input terminal, and an output terminal, the first input terminal configured to receive an output signal of the antecedent pixel, the second input terminal receiving the first logic signal. a plurality of pixels (30; 60) provided side by side in a first direction, and each including a single-photon avalanche diode disposed on a first semiconductor substrate, and each configured to generate a first logic signal depending on detection timing in the single-photon avalanche diode; and a time measurement section that is disposed on a second semiconductor substrate attached to the first semiconductor substrate and configured to measure the detection timing in each of the plurality of pixels, pixels, other than a first pixel disposed on an end in the first direction and out of the plurality of pixels (30; 60), each pixel configured to generate an output signal on a basis of an output signal of an antecedent pixel and on a basis of the first logic signals generated in the pixel, and the time measurement section configured to measure the detection timing in each of the plurality of pixels (30; 60) on a basis of an output signal of a second pixel disposed on another end in the first direction out of the plurality of pixels (30; 60), wherein the pixels, other than the first pixel and out of the plurality of pixels (30; 60), each include a first logic circuit (36; 66), the first logic circuit (36; 66) being disposed on the second semiconductor substrate and having a first input terminal, a second input terminal, and an output terminal, the first input terminal configured to receive an output signal of the antecedent pixel, the second input terminal receiving the first logic signal.
A method for establishing accessors of a building from probe data comprising: receiving probe data points, each probe data point received from a probe apparatus of a plurality of probe apparatuses, each probe apparatus comprising one or more sensors and being associated with a user, wherein each probe data point comprises location information and heading information as trajectory information associated with the respective probe apparatus; matching probe data to a map; determining a location for each of the probe data points; determining probe data point candidates for a first edge of a building, wherein the probe data point candidates for the first edge of the building have a location within a buffer zone of the first edge of the building; determining, for the probe data point candidates, probe data points entering or exiting the building; generating, from the probe data points entering or exiting the building, a probe density histogram for the first edge of the building, wherein the probe density histogram represents a volume of probe data points at each of a plurality of positions across a width of the first edge of the building; applying a deconvolution method to the probe density histogram to obtain a multi-modal histogram; determining, from the multi-modal histogram, a number of statistically significant peaks, wherein each statistically significant peak represents an accessor to the building in the first edge of the building; and providing data for navigational assistance based on the computed accessors to the building. receiving probe data points, each probe data point received from a probe apparatus of a plurality of probe apparatuses, each probe apparatus comprising one or more sensors and being associated with a user, wherein each probe data point comprises location information and heading information as trajectory information associated with the respective probe apparatus; matching probe data to a map; determining a location for each of the probe data points; determining probe data point candidates for a first edge of a building, wherein the probe data point candidates for the first edge of the building have a location within a buffer zone of the first edge of the building; determining, for the probe data point candidates, probe data points entering or exiting the building; generating, from the probe data points entering or exiting the building, a probe density histogram for the first edge of the building, wherein the probe density histogram represents a volume of probe data points at each of a plurality of positions across a width of the first edge of the building; applying a deconvolution method to the probe density histogram to obtain a multi-modal histogram; determining, from the multi-modal histogram, a number of statistically significant peaks, wherein each statistically significant peak represents an accessor to the building in the first edge of the building; and providing data for navigational assistance based on the computed accessors to the building.
Power tool device, in particular a handheld power tool device, with at least one open-loop and/or closed-loop control unit (12a; 12a'; 12b; 12c; 12d) and with at least one drive unit sensor unit (14a; 14a'; 14b; 14c; 14d) for recording at least one drive unit characteristic variable, which can be processed by the open-loop and/or closed-loop control unit (12a; 12a'; 12b; 12c; 12d) at least for providing an open-loop and/or closed-loop control of a drive unit (16a; 16a'; 16b; 16c; 16d) of a power tool and/or for providing an output of information to an operator, and with at least one machining tool sensor unit (18a; 18a'; 18b; 18c; 18d) for recording at least one machining tool characteristic variable, which can be processed by the open-loop and/or closed-loop control unit (12a; 12a'; 12b; 12c; 12d) at least for providing an open-loop and/or closed-loop control of a drive unit (16a; 16a'; 16b; 16c; 16d) and/or for providing an output of information to an operator, characterized by at least one operator sensor unit (20a; 20a'; 20b; 20c; 20d) for recording at least one operator-specific characteristic variable, which can be processed by the open-loop and/or closed-loop control unit (12a; 12a'; 12b; 12c; 12d) at least for providing an open-loop and/or closed-loop control of the drive unit (16a; 16a'; 16b; 16c; 16d) and/or for outputting information to an operator and/or by at least one workpiece sensor unit (22a; 22a'; 22b; 22c; 22d) for recording at least one workpiece characteristic variable, which can be processed by the open-loop and/or closed-loop control unit (12a; 12a'; 12b; 12c; 12d) at least for providing an open-loop and/or closed-loop control of the drive unit (16a; 16a'; 16b; 16c; 16d) and/or for outputting information to an operator and/or by at least one power tool accessory sensor unit (24a; 24a'; 24b; 24c; 24d) for recording at least one power tool accessory characteristic variable, which can be processed by the open-loop and/or closed-loop control unit (12a; 12a'; 12b; 12c; 12d) at least for providing an open-loop and/or closed-loop control of the drive unit (16a; 16a'; 16b; 16c; 16d) and/or for outputting information to an operator.
Method for arranging on a component of a recipient a gas filter comprising a filter layer of filter material and a cover layer of covering material, wherein the method comprises of: - providing a component of a recipient with a recess; - covering the recess with the filter layer and the cover layer, wherein the filter layer is located between the recipient and the cover layer; and characterized by - welding the filter layer and the cover layer to the component of the recipient by arranging welds such that between the welds tunnels filled with filter material are formed which are intended to enable gas exchange between the interior of the recipient and an area externally of the recipient. - providing a component of a recipient with a recess; - covering the recess with the filter layer and the cover layer, wherein the filter layer is located between the recipient and the cover layer; and characterized by - welding the filter layer and the cover layer to the component of the recipient by arranging welds such that between the welds tunnels filled with filter material are formed which are intended to enable gas exchange between the interior of the recipient and an area externally of the recipient.
A compressor comprising: a hermetic case arranged to store oil in a lower portion thereof; a compression mechanism part arranged to compress a refrigerant; a power train part arranged to generate a driving force; a rotational shaft arranged to transmit the driving force generated from the power train part to the compression mechanism part, and comprising a hollow portion; and an oil pumping member inserted into and fixed in the hollow portion of the rotational shaft, and comprising an oil pumping part arranged to move the oil stored in the lower portion of the hermetic case upwards, characterized in that the hollow portion of the rotational shaft comprises a female screw part, and the oil pumping member comprises a male screw part which is coupled to the female screw part of the rotational shaft, and in that a spiral groove arranged to upwardly move the oil moved through the hollow portion is formed in an outer circumferential surface of the rotational shaft. a hermetic case arranged to store oil in a lower portion thereof; a compression mechanism part arranged to compress a refrigerant; a power train part arranged to generate a driving force; a rotational shaft arranged to transmit the driving force generated from the power train part to the compression mechanism part, and comprising a hollow portion; and an oil pumping member inserted into and fixed in the hollow portion of the rotational shaft, and comprising an oil pumping part arranged to move the oil stored in the lower portion of the hermetic case upwards, characterized in that the hollow portion of the rotational shaft comprises a female screw part, and the oil pumping member comprises a male screw part which is coupled to the female screw part of the rotational shaft, and in that a spiral groove arranged to upwardly move the oil moved through the hollow portion is formed in an outer circumferential surface of the rotational shaft.
Device for holding an excess length of a cable, in particular a glass fibre cable, in an installation cabinet, comprising a coil body rotatable about an axis of rotation and a carrier unit, wherein the coil body comprises a winding core with delimiting elements arranged on both sides for holding the wound cable in a stowage space formed by the winding core and the delimiting elements, wherein the coil body has a fixing element and the carrier unit has a holding element corresponding to the fixing element of the coil body for the detachable and preferably rotatable fixing of the coil body in or on the carrier element, wherein the carrier unit has an abutment face, which is used to fix the carrier element to a corresponding stop surface in the installation cabinet, wherein the axis of rotation of the coil body is arranged parallel to or at a maximum angle of 45° to the abutment face of the carrier unit, characterized in that the carrier unit is a bent sheet metal part and is configured in a U shape with the abutment face as base and two lateral limbs extending in parallel, wherein the limbs each have a holding element.
Article comprising a substrate and a polymer layer, said polymer layer is extrusion coated on the substrate, wherein (a) said substrate is a metal; (b) the polymer layer comprises a composition (Co) comprising polyolefin, a non-migratory slip agent (NM-SA), and an anti-blocking agent; (c) the non-migratory slip agent (NM-SA) is selected from (i) polysiloxane or (ii) secondary amid of fatty acid; and (d) the antiblocking agent is an inorganic material. (a) said substrate is a metal; (b) the polymer layer comprises a composition (Co) comprising polyolefin, a non-migratory slip agent (NM-SA), and an anti-blocking agent; polyolefin, a non-migratory slip agent (NM-SA), and an anti-blocking agent; (c) the non-migratory slip agent (NM-SA) is selected from (i) polysiloxane or (ii) secondary amid of fatty acid; and (i) polysiloxane or (ii) secondary amid of fatty acid; and (d) the antiblocking agent is an inorganic material.
A compound of the Formula: wherein: R 1 is -CH 2 CH(CH 3) 2, -CH 2 CH 3, -CH 2 CH 2 OCH 3, or -CH 2 -cyclopropyl; R 2 is -CH 3 or -CH 2 CH 3; and X is N or CH, or a pharmaceutically acceptable salt thereof; for use in combination with one or more of cytarabine, or a pharmaceutically acceptable salt thereof; azacitidine, or a pharmaceutically acceptable salt thereof; or midostaurin, or a pharmaceutically acceptable salt thereof, in the treatment of cancer in a human subject having an IDH mutation. R 1 is -CH 2 CH(CH 3) 2, -CH 2 CH 3, -CH 2 CH 2 OCH 3, or -CH 2 -cyclopropyl; R 2 is -CH 3 or -CH 2 CH 3; and X is N or CH, or a pharmaceutically acceptable salt thereof; for use in combination with one or more of cytarabine, or a pharmaceutically acceptable salt thereof; azacitidine, or a pharmaceutically acceptable salt thereof; or midostaurin, or a pharmaceutically acceptable salt thereof, in the treatment of cancer in a human subject having an IDH mutation.
A power converter, comprising: a voltage source rectifier converting AC power obtained from an AC power source into DC power; a DC power source; a DC voltage conversion circuit converting a DC voltage obtained from the DC power source into a different DC voltage; and a load driving circuit converting at least either the DC power output of the voltage source rectifier or the DC power output of the DC voltage conversion circuit into AC power to drive an AC load, characterized in that the DC power source is connected to the DC voltage conversion circuit to convert a voltage of the DC power source and supply the resultant voltage to the load driving circuit, and in that the DC power source is connected to the voltage source rectifier via a DC power supply circuit and inductance elements, and the voltage source rectifier is controlled as a DC chopper, to convert the voltage of the DC power source and supply the resultant voltage to the load driving circuit. a voltage source rectifier converting AC power obtained from an AC power source into DC power; a DC power source; a DC voltage conversion circuit converting a DC voltage obtained from the DC power source into a different DC voltage; and a load driving circuit converting at least either the DC power output of the voltage source rectifier or the DC power output of the DC voltage conversion circuit into AC power to drive an AC load, characterized in that the DC power source is connected to the DC voltage conversion circuit to convert a voltage of the DC power source and supply the resultant voltage to the load driving circuit, and in that the DC power source is connected to the voltage source rectifier via a DC power supply circuit and inductance elements, and the voltage source rectifier is controlled as a DC chopper, to convert the voltage of the DC power source and supply the resultant voltage to the load driving circuit.