mhurhangee/ep-ind-claims huggingface dataset:
Mobile bulk material processing apparatus comprising: a main frame mounted or supported such that a conveyor support region of the frame is suspended above the ground; a conveyor for transporting material to or from a material processing unit at the apparatus; a pivot joint to couple the conveyor to the support region of the main frame such that the conveyor is capable of pivoting to change a position of a distal end of the conveyor relative to the main frame; the pivot joint positioned above the conveyor to suspend the conveyor below the support region of the main frame; characterised by: a linear coupling to mount the pivot joint at the support region of the main frame, the linear coupling configured to provide linear movement of the conveyor along the support region of the main frame. a main frame mounted or supported such that a conveyor support region of the frame is suspended above the ground; a conveyor for transporting material to or from a material processing unit at the apparatus; a pivot joint to couple the conveyor to the support region of the main frame such that the conveyor is capable of pivoting to change a position of a distal end of the conveyor relative to the main frame; the pivot joint positioned above the conveyor to suspend the conveyor below the support region of the main frame; characterised by: a linear coupling to mount the pivot joint at the support region of the main frame, the linear coupling configured to provide linear movement of the conveyor along the support region of the main frame. a linear coupling to mount the pivot joint at the support region of the main frame, the linear coupling configured to provide linear movement of the conveyor along the support region of the main frame.
A sheet stacking device for forming a stack of subsequent sheets, wherein in operation a sheet follows a transport path from a sheet supply to a receiving plane on which the stack of subsequent sheets is formed, the sheet stacking device comprising: - a rotatably arranged flipping element (22, 23), comprising a slot (26, 27) at its circumferential edge for accepting at least a portion of a sheet to be stacked, configured such that, in a first rotation zone, the rotatably arranged flipping element (22, 23) is able to accept the sheet from the sheet supply into the slot (26, 27) and, in a second rotation zone, the sheet is conveyed out of the slot (26, 27) onto the top of the stack of subsequent sheets on the receiving plane; and - a closed-loop shaped friction element (28, 29), characterised in that the closed-loop shaped friction element (28, 29) is moveably arranged on the rotatably arranged flipping element (22, 23), such that the closed-loop shaped friction element (28,29) is controllable to move into one of a first radial position and a second radial position, such that in the first radial position, the closed-loop shaped friction element (28, 29) does not apply a frictional force to a sheet in the transport path and such that in the second radial position, the closed-loop shaped friction element (28, 29) does apply a frictional force to a sheet in the transport path. - a rotatably arranged flipping element (22, 23), comprising a slot (26, 27) at its circumferential edge for accepting at least a portion of a sheet to be stacked, configured such that, in a first rotation zone, the rotatably arranged flipping element (22, 23) is able to accept the sheet from the sheet supply into the slot (26, 27) and, in a second rotation zone, the sheet is conveyed out of the slot (26, 27) onto the top of the stack of subsequent sheets on the receiving plane; and - a closed-loop shaped friction element (28, 29), characterised in that the closed-loop shaped friction element (28, 29) is moveably arranged on the rotatably arranged flipping element (22, 23), such that the closed-loop shaped friction element (28,29) is controllable to move into one of a first radial position and a second radial position, such that in the first radial position, the closed-loop shaped friction element (28, 29) does not apply a frictional force to a sheet in the transport path and such that in the second radial position, the closed-loop shaped friction element (28, 29) does apply a frictional force to a sheet in the transport path.
A cell culture incubator instrument comprising: an incubator cabinet having internal chambers (320, 330), a door for providing communication between the chambers and an external environment and an electrically controllable door between the internal chambers; a plurality of electrically controllable resources including an electrically controllable device for handling a liquid medium in at least one of the internal chambers, an electrically controllable transfer device for moving one or more items in and out of the two internal chambers, and electrically controllable cell culture vessel transfer device for moving at least one cell culture vessel within one internal chamber; a processor; and a non-transitory computer-readable medium having instructions stored thereon that define at least one protocol and that, when executed by the processor, enable the processor to: receive data regarding at least one protocol to be performed by the instrument; generate a schedule regarding operation of at least one of the plurality of electrically controllable resources to perform the at least one protocol; and control at least one of the plurality of electrically controllable resources in accordance with the generated schedule of the plurality of electrically controllable resources. an incubator cabinet having internal chambers (320, 330), a door for providing communication between the chambers and an external environment and an electrically controllable door between the internal chambers; a plurality of electrically controllable resources including an electrically controllable device for handling a liquid medium in at least one of the internal chambers, an electrically controllable transfer device for moving one or more items in and out of the two internal chambers, and electrically controllable cell culture vessel transfer device for moving at least one cell culture vessel within one internal chamber; a processor; and a non-transitory computer-readable medium having instructions stored thereon that define at least one protocol and that, when executed by the processor, enable the processor to: receive data regarding at least one protocol to be performed by the instrument; generate a schedule regarding operation of at least one of the plurality of electrically controllable resources to perform the at least one protocol; and control at least one of the plurality of electrically controllable resources in accordance with the generated schedule of the plurality of electrically controllable resources. receive data regarding at least one protocol to be performed by the instrument; generate a schedule regarding operation of at least one of the plurality of electrically controllable resources to perform the at least one protocol; and control at least one of the plurality of electrically controllable resources in accordance with the generated schedule of the plurality of electrically controllable resources.
A cathode for a lithium secondary battery, comprising: a current collector; a first composite layer formed from a mixture of olivine-type lithium iron phosphate cathode active material powder and a binder on the current collector; and a second composite layer formed from a mixture of olivine-type lithium iron phosphate cathode active material powder and a binder on the first composite layer, wherein a specific surface area of the olivine-type lithium iron phosphate cathode active material powder in the second composite layer is 0.01 to 0.8 times that of the olivine-type lithium iron phosphate cathode active material powder in the first composite layer, an average particle size of the active material particles in the first composite layer being smaller than that of the active material particles in the second composite layer, wherein the load amount of the cathode active material in the first composite layer is 5 to 25 mg/cm and wherein the load amount of the cathode active material in the second composite layer is 5 to 25 mg/cm 2. a current collector; a first composite layer formed from a mixture of olivine-type lithium iron phosphate cathode active material powder and a binder on the current collector; and a second composite layer formed from a mixture of olivine-type lithium iron phosphate cathode active material powder and a binder on the first composite layer, wherein a specific surface area of the olivine-type lithium iron phosphate cathode active material powder in the second composite layer is 0.01 to 0.8 times that of the olivine-type lithium iron phosphate cathode active material powder in the first composite layer, an average particle size of the active material particles in the first composite layer being smaller than that of the active material particles in the second composite layer, wherein the load amount of the cathode active material in the first composite layer is 5 to 25 mg/cm and wherein the load amount of the cathode active material in the second composite layer is 5 to 25 mg/cm 2.
A method for collectively fabricating a reconstituted wafer which comprises chips which are either an active electronic component such as a bare chip or a passive component exhibiting connection pads on one of the faces of the chip termed the front face, said method comprising the following steps: A) positioning of the chips on an initial adhesive support, front face on the support, B) deposition of an electrically insulating mineral layer on the initial support and the chips, characterized in that the deposition in step B is a vapor-phase desposition at atmospheric pressure and at ambient temperature, the electrically insulating mineral layer having a mechanical role of holding the chips, and in that it comprises the additional steps: C) transfer of the chips covered with the electrically insulating mineral layer onto a provisional adhesive support, rear face of the chips toward this provisional adhesive support, D) removal of the initial adhesive support, E) overlaying of the chips onto a steel support of "wafer chuck" type drilled with holes, front faces of the chips toward this support, F) removal of the provisional adhesive support, G) deposition of a resin on the support of "wafer chuck" type so as to encapsulate the chips, and then polymerization of the resin, H) removal of the support of "wafer chuck" type, I) production of an RDL layer active face side. A) positioning of the chips on an initial adhesive support, front face on the support, B) deposition of an electrically insulating mineral layer on the initial support and the chips, C) transfer of the chips covered with the electrically insulating mineral layer onto a provisional adhesive support, rear face of the chips toward this provisional adhesive support, D) removal of the initial adhesive support, E) overlaying of the chips onto a steel support of "wafer chuck" type drilled with holes, front faces of the chips toward this support, F) removal of the provisional adhesive support, G) deposition of a resin on the support of "wafer chuck" type so as to encapsulate the chips, and then polymerization of the resin, H) removal of the support of "wafer chuck" type, I) production of an RDL layer active face side.
A carbon powder material for a battery electrode, which is a composite of carbonaceous particles having a laser diffraction mean particle size of 10 to 40 μm and a mean roundness of the carbonaceous particles as measured by use of a flow particle image analyzer is 0.85 to 0.99 as core particles and a carbon material derived from an organic compound, wherein said carbon powder material is prepared by a process comprising: - mixing the carbonaceous particles with the organic compound serving as a polymer source material, - allowing the organic compound or a solution thereof to deposit onto and permeate into the carbonaceous particles by evacuating the reaction system to a pressure of 0.133 kPa to 13.3 kPa (1 to 100 Torr) and then adjusting to ambient pressure, - polymerizing the organic compound, - and then heating at 1,800 to 3,300°C to thereby graphitize and/or carbonize the particles, whereby said carbon powder material is obtained in which graphite crystalline structure regions and amorphous structure regions are dispersed from the surface to the center in each of the particles constituting the carbon powder material, and wherein said carbon powder material, when mixed with a binder resin selected from styrene-butadiene rubber and fluorine-containing polymers selected from polyvinylidene fluoride and polytetrafluoroethylene and pressed to a sheet at 10 3 kg/cm 2, has an intensity ratio of 0.1 or more for peak intensity attributed to a plane to peak intensity attributed to a plane determined through X-ray diffraction spectroscopic analysis. - mixing the carbonaceous particles with the organic compound serving as a polymer source material, - allowing the organic compound or a solution thereof to deposit onto and permeate into the carbonaceous particles by evacuating the reaction system to a pressure of 0.133 kPa to 13.3 kPa (1 to 100 Torr) and then adjusting to ambient pressure, - polymerizing the organic compound, - and then heating at 1,800 to 3,300°C to thereby graphitize and/or carbonize the particles,
A composition for production of an artificially engineered immune cell having at least one artificially engineered immune regulatory gene selected from Dgka gene and Dgk^ gene, comprising: one or more guide nucleic acids or nucleic acids encoding the same; and an editor protein or a nucleic acid encoding the same, wherein the editor protein is Streptococcus pyogenes-derived Cas9 protein, wherein the guide nucleic acid and the editor protein are capable of forming a guide nucleic acid-editor protein complex, and the guide nucleic acid-editor protein complex is capable of inducing one or more indels in a nucleic acid sequence of any one or more of Dgka gene and Dgk^ζ gene of an immune cell, and wherein the guide nucleic acid has a sequence capable of targeting a target sequence selected from SEQ ID NOs: 19, 20, 21, and 23 in an exon region of Dgka gene, or the target sequence selected from SEQ ID NOs: 109, 110, 111, 112, 113, 116, 120, 121, and 123 in an exon region of Dgkζ gene. one or more guide nucleic acids or nucleic acids encoding the same; and an editor protein or a nucleic acid encoding the same, wherein the editor protein is Streptococcus pyogenes-derived Cas9 protein, wherein the guide nucleic acid and the editor protein are capable of forming a guide nucleic acid-editor protein complex, and the guide nucleic acid-editor protein complex is capable of inducing one or more indels in a nucleic acid sequence of any one or more of Dgka gene and Dgk^ζ gene of an immune cell, and wherein the guide nucleic acid has a sequence capable of targeting a target sequence selected from SEQ ID NOs: 19, 20, 21, and 23 in an exon region of Dgka gene, or the target sequence selected from SEQ ID NOs: 109, 110, 111, 112, 113, 116, 120, 121, and 123 in an exon region of Dgkζ gene.
A pressure-limiting valve (10; 10'; 10") comprising a valve housing and a valve piston and a pressure-limiting adjusting spring, at least one valve inlet and at least one valve outlet being provided in the valve housing, the valve piston being able to assume an open position, in which the valve inlet and the valve outlet are connected to one another, and at least one closed position, in which the valve inlet and the valve outlet are separated from one another, the valve piston having a first piston ring with a sealing face and a second piston ring, characterised in that the first piston ring has a smaller pneumatic active surface than the second piston ring and the valve piston has between the first piston ring and the second piston ring a substantially truncated cone-like section that tapers towards the first piston ring, in the closed position the sealing face of the first piston ring being pulled so as to form a seal against a housing lip by a pneumatic force that acts on the first piston ring and second piston ring and is directed against the force of the pressure-limiting adjusting spring and, furthermore, there being provided in the valve piston in order to create a safety valve function a pneumatic passage that can be closed by a spring-loaded safety valve body.
A dry type comprehensive nutritional diet pet food comprising animal-based proteins and plant-based proteins, characterized in that: the pet food comprises a soybean protein isolate, a fermented soybean meal, or a mixture thereof, a protein digestibility of the pet food is 88% or more, a content of β-conglycinin, which is one of proteins constituting a soybean protein, is 5 mass % to 10 mass % in terms of dry matter, a content of a plant-based protein other than a plant-based protein derived from the soybean protein isolate and the fermented soybean meal is 11.0 mass % or less in terms of dry matter, and a moisture content of the pet food is 10% by weight or less. the pet food comprises a soybean protein isolate, a fermented soybean meal, or a mixture thereof, a protein digestibility of the pet food is 88% or more, a content of β-conglycinin, which is one of proteins constituting a soybean protein, is 5 mass % to 10 mass % in terms of dry matter, a content of a plant-based protein other than a plant-based protein derived from the soybean protein isolate and the fermented soybean meal is 11.0 mass % or less in terms of dry matter, and a moisture content of the pet food is 10% by weight or less.
In vitro use of a conjugate comprising at least one monosaccharide residue and at least one nucleosidic component in the transfection of cells having sugar transporter proteins in the cell membrane, wherein in the conjugate, at least one mono saccharide residue is covalently bound to at least one nucleosidic component via a linker comprising a cyclic group formed by a Click reaction, particularly a 1, 2, 3-triazole group, formed by a Click-reaction between an alkyne and an azide, or a group formed by a Click-reaction between a norbornene and a nitrile imine, a nitrile oxide or a tetrazine, wherein the nucleosidic component is connected to the monosaccharide residue via a nucleobase, and wherein the nucleosidic component is selected from nucleic acids, nucleosides and nucleotides.
A method carried out by a node in a radio access network for packet data communication in a wireless communication network, the method comprising: intercepting (302, 402) a message regarding a first PDP context setup, the message being sent between a mobile station and a core network (106, 108), the message comprising PDP context related information, wherein the interception is performed to detect the PDP context related information; detecting that a second PDP context is to be setup; establishing (304, 410), based on the intercepted PDP context related information and on a Quality of Service value for the data to be sent in the second PDP context, the second PDP context between the node and the mobile station, thus enabling prioritizing packets in the radio access network. intercepting (302, 402) a message regarding a first PDP context setup, the message being sent between a mobile station and a core network (106, 108), the message comprising PDP context related information, wherein the interception is performed to detect the PDP context related information; detecting that a second PDP context is to be setup; establishing (304, 410), based on the intercepted PDP context related information and on a Quality of Service value for the data to be sent in the second PDP context, the second PDP context between the node and the mobile station, thus enabling prioritizing packets in the radio access network.
Method for regulating a gas mixture (8, 107) formed from a gas (2, 104) and a fuel gas (1, 103) in a fuel gas-operated heating appliance, wherein the gas mixture is created by providing and mixing a gas quantity by way of a first control element (4, 108) and a fuel gas quantity by way of a second control element (3, 102), wherein a microthermal gas sensor (7, 105), which detects at least one material property of the gas (2, 104), is exposed to the gas and relays a sensor signal dependent on the respective gas to a controller (10, 112), wherein a microthermal gas mixture sensor (9, 106, 109), which detects at least one material property of the gas mixture (8, 107), is exposed to the gas mixture and continuously relays a sensor signal dependent on the respective gas mixture to the controller (10, 112), wherein, upon change in the detected sensor signal of the gas sensor, a newly detected sensor signal of the gas sensor is compared with reference values which have been measured in the laboratory and saved in a table of values in the controller (10, 112) and from this a target value of the sensor signal of the gas mixture sensor (9, 106, 109) is determined without a mixture ratio of the gas mixture (9, 108) composed of fuel gas and gas being changed, wherein the target value of the sensor signal of the gas mixture sensor (9, 106, 109) is adapted in dependence on a composition of the gas or the fuel gas by the controller (10, 112) and the adapting of the target value of the sensor signal of the gas mixture sensor (9, 106, 109) is done by a calibration process and wherein the calibration process is done in particular by an ionization current regulation of a flame signal of a burner of the heating appliance, until an ionization target value is reached.
A control device for controlling a light emitting element by performing pulse width modulation comprising: a DC-DC converter for supplying voltage to the light emitting element, a setting unit that sets a control value for the pulse width modulation, a detection unit that detects an actual value of an ON time period which is a period during which the current flowing through the light emitting element is relatively high, and a correction unit for correcting the control value set by the setting unit so as to reduce the difference between a specified value of the ON time period corresponding to the control value and the actual value of the ON time period detected by the detection unit, characterised in that the pulse width modulation is in the DC-DC converter. a DC-DC converter for supplying voltage to the light emitting element, a setting unit that sets a control value for the pulse width modulation, a detection unit that detects an actual value of an ON time period which is a period during which the current flowing through the light emitting element is relatively high, and a correction unit for correcting the control value set by the setting unit so as to reduce the difference between a specified value of the ON time period corresponding to the control value and the actual value of the ON time period detected by the detection unit, characterised in that the pulse width modulation is in the DC-DC converter.