mhurhangee/ep-ind-claims huggingface dataset:
An alpha ray monitoring device, comprising: a device housing having an opening; an incident window that is provided at the opening, is made up of a beta-ray shield material and a material which is configured to allow an emitted light to pass therethrough and to enter an inside of the device housing, the emitted light is originated by alpha rays emitted from a measurement object set outside of the device housing; a condenser that is provided in the device housing, and is configured to condense the emitted light having passed through the incident window; an optical path changer that is provided in the device housing, and is configured to change an optical path of the emitted light from an incident direction from the incident window; and a first optical detector that is provided in the device housing, and is configured to detect the emitted light which has been condensed by the condenser and whose optical path has been changed by the optical path changer; characterized in that the alpha ray monitoring device further comprises a measurement chamber one side of which is connectable to the opening of the device housing and on another side of which the measurement object is set, wherein the measurement chamber is configured to prevent light outside of the measurement chamber from entering the inside of the device housing from the incident window in a state where the measurement chamber is connected to the device housing and the measurement object is set in the measurement chamber. a device housing having an opening; an incident window that is provided at the opening, is made up of a beta-ray shield material and a material which is configured to allow an emitted light to pass therethrough and to enter an inside of the device housing, the emitted light is originated by alpha rays emitted from a measurement object set outside of the device housing; a condenser that is provided in the device housing, and is configured to condense the emitted light having passed through the incident window; an optical path changer that is provided in the device housing, and is configured to change an optical path of the emitted light from an incident direction from the incident window; and a first optical detector that is provided in the device housing, and is configured to detect the emitted light which has been condensed by the condenser and whose optical path has been changed by the optical path changer; characterized in that the alpha ray monitoring device further comprises a measurement chamber one side of which is connectable to the opening of the device housing and on another side of which the measurement object is set, wherein the measurement chamber is configured to prevent light outside of the measurement chamber from entering the inside of the device housing from the incident window in a state where the measurement chamber is connected to the device housing and the measurement object is set in the measurement chamber.
A process for waste treatment comprising:- introducing waste into a chamber, heating the waste to an elevated temperature to effect pyrolysis of the waste, introducing oxygen into the chamber to effect combustion of the waste, and removing combusted waste from the chamber, characterised by agitating the waste by periodically disrupting waste material with bursts of gas so as to promote combustion of the waste.
A supercapacitor comprising an electrolyte, said electrolyte comprising a mixture of water, one or more non-aqueous solvent and a salt forming a mixture of an aqueous solution and a non-aqueous solution; wherein - said non-aqueous solution has a larger electrochemical stability window than said aqueous solution; - said salt has a solubility above 0.1M in water and/or in said one or more non-aqueous solvent between -25 and 100 °C; - said mixture has a buffer capacity β lower than 10 -5; - hydron (H +) and hydroxide ion (OH -) solubility is lower in said non-aqueous solution than in said aqueous solution; wherein the ratio vol/vol between said aqueous solution and said non-aqueous solution is in the range between 100:1 and 1:1; said supercapacitor further comprising two electrodes and wherein said electrolyte is located between said two electrodes, wherein said two electrodes have a higher affinity towards said non-aqueous solution than towards said aqueous solution. - said non-aqueous solution has a larger electrochemical stability window than said aqueous solution; - said salt has a solubility above 0.1M in water and/or in said one or more non-aqueous solvent between -25 and 100 °C; - said mixture has a buffer capacity β lower than 10 -5; - hydron (H +) and hydroxide ion (OH -) solubility is lower in said non-aqueous solution than in said aqueous solution; wherein the ratio vol/vol between said aqueous solution and said non-aqueous solution is in the range between 100:1 and 1:1; said supercapacitor further comprising two electrodes and wherein said electrolyte is located between said two electrodes, wherein said two electrodes have a higher affinity towards said non-aqueous solution than towards said aqueous solution.
Device for supportingly holding and optionally moving a glass preform, such as for example a gob, wherein the device comprises a carrier device, - at least one, in operation substantially vertically oriented, rod-shaped support element, wherein the rod-shaped support element terminates at its upper end in at least one point-shaped upwardly directed support surface; and/or - at least one, in operation substantially vertically aligned and substantially inverted U-shaped support element with an upwardly directed support surface connecting the substantially vertically extending vertical portions of the support element, characterized in that the device has at least one reflector, preferably an IR radiation reflector, which is preferably arranged between a base body and the support surfaces and is aligned in such a way that its reflecting surface faces in the direction of the support surfaces. - at least one, in operation substantially vertically oriented, rod-shaped support element, wherein the rod-shaped support element terminates at its upper end in at least one point-shaped upwardly directed support surface; - at least one, in operation substantially vertically aligned and substantially inverted U-shaped support element with an upwardly directed support surface connecting the substantially vertically extending vertical portions of the support element,
A measles virus vector for reprogramming somatic cells into iPSCs, wherein said vector comprises nucleic acid encoding a measles virus leader sequence, nucleic acid encoding a measles virus N polypeptide, nucleic acid encoding a measles virus P polypeptide, nucleic acid encoding a measles virus M polypeptide, nucleic acid encoding a measles virus F polypeptide, nucleic acid encoding a measles virus L polypeptide, nucleic acid encoding a measles virus trailer sequence, and nucleic acid encoding a plurality of reprogramming factors located between said nucleic acid encoding said measles virus F polypeptide and said nucleic acid encoding said measles virus L polypeptide, wherein said plurality of reprogramming factors comprises OCT4, SOX2, and KLF4.
Tilt rotator for a machine, in particular an excavator, having a head section, that is attachable to the machine, and a motor flange; a rotator, which rests on the head section pivotably around a pivot axis, for rotating an attachment around a rotation axis vertical to the pivot axis; a pivot drive for pivoting the rotator around the pivot axis; characterised in that the pivot drive comprises two identical radial piston motors with hydraulic power unit; the radial piston motors are arranged coaxially with the pivot axis mirrored on two opposing sides of the head section and flange-mounted to the motor flange. a head section, that is attachable to the machine, and a motor flange; a rotator, which rests on the head section pivotably around a pivot axis, for rotating an attachment around a rotation axis vertical to the pivot axis; a pivot drive for pivoting the rotator around the pivot axis; characterised in that the pivot drive comprises two identical radial piston motors with hydraulic power unit; the radial piston motors are arranged coaxially with the pivot axis mirrored on two opposing sides of the head section and flange-mounted to the motor flange.
Thermoplastic elastomer composition comprising, a) from 10 to 85 parts by weight of at least one thermoplastic polyurethane, b) from 10 to 85 parts by weight of at least one olefin-based non-polar thermoplastic elastomer and/or of a blend of thermoplastic polyolefins and c) from 3 to 15 parts by weight of at least one compatibilizer selected from the group consisting of unmodified copolymers of ethylene and/or propylene and polar monomer, where the portions of a), b) and c) give a total of 100. a) from 10 to 85 parts by weight of at least one thermoplastic polyurethane, b) from 10 to 85 parts by weight of at least one olefin-based non-polar thermoplastic elastomer and/or of a blend of thermoplastic polyolefins and c) from 3 to 15 parts by weight of at least one compatibilizer selected from the group consisting of unmodified copolymers of ethylene and/or propylene and polar monomer,
A method of controlling a set of at least two inverters (1a, 1b) in an electrical generation system with parallel inverters on the DC side and on the AC side, the method being characterized in that it comprises the implementation by at least one data processing unit (2a, 2b) of the steps of: (a) for each inverter (1a, 1b) of said set, obtaining an input duty cycle (PWMi) of an input signal (Si) received by said inverter (1a, 1b), (b) calculation of an average duty cycle (PWMm) from the input duty cycles (PWMi), (c) modulation and synchronization of the input signal (Si) received by each inverter (1a, 1b) into an output signal (So) having an output duty cycle (PWMo) corresponding to the average duty cycle (PWMm). (a) for each inverter (1a, 1b) of said set, obtaining an input duty cycle (PWMi) of an input signal (Si) received by said inverter (1a, 1b), (b) calculation of an average duty cycle (PWMm) from the input duty cycles (PWMi), (c) modulation and synchronization of the input signal (Si) received by each inverter (1a, 1b) into an output signal (So) having an output duty cycle (PWMo) corresponding to the average duty cycle (PWMm).
An oximeter system comprising: an oximeter sensor comprising a light emitter for directing light at a patient; a light detector mounted to receive light from said patient; and a memory storing a plurality of predefined values of oxygen saturation and/or predefined red and IR signal modulation ratio values used to determine oxygen saturation, said plurality of predefined values being dependent on a mean wavelength of said light emitter; and an oximeter in communication with said oximeter sensor for receiving said plurality of predefined values and a light detector signal, said oximeter being programmed to determine oxygen saturation from said light detector signal by fitting said oxygen saturation to a curve defined by said predefined values stored in said memory.
A mobile apparatus with wireless charging function, comprising: a central processing unit; a wireless power receiver of the mobile apparatus, wherein the wireless power receiver is coupled to the central processing unit of the mobile apparatus, and the wireless power receiver of the mobile apparatus is wirelessly connectable to a wireless power transmitter of a wireless charger, for receiving wireless power, wherein the wireless power receiver of the mobile apparatus is configured to receive a first authentication request signal from the wireless power transmitter of the wireless charger and characterised in that the wireless power receiver is configured to subsequently send a second authentication request signal to the central processing unit of the mobile apparatus, and wherein the central processing unit of the mobile apparatus is configured to send a second authentication information to the wireless power receiver, and the wireless power receiver of the mobile apparatus is configured to send a first authentication information to the wireless power transmitter of the wireless charger; and a communication circuit coupled to the central processing unit and only via the central processing unit to the wireless power receiver, the communication circuit is configured for sending a third authentication request signal to a first server, wherein the communication circuit is further configured for receiving a third authentication information, according to the third authentication request signal, from the first server. a central processing unit; a wireless power receiver of the mobile apparatus, wherein the wireless power receiver is coupled to the central processing unit of the mobile apparatus, and the wireless power receiver of the mobile apparatus is wirelessly connectable to a wireless power transmitter of a wireless charger, for receiving wireless power, wherein the wireless power receiver of the mobile apparatus is configured to receive a first authentication request signal from the wireless power transmitter of the wireless charger and characterised in that the wireless power receiver is configured to subsequently send a second authentication request signal to the central processing unit of the mobile apparatus, and wherein the central processing unit of the mobile apparatus is configured to send a second authentication information to the wireless power receiver, and the wireless power receiver of the mobile apparatus is configured to send a first authentication information to the wireless power transmitter of the wireless charger; and a communication circuit coupled to the central processing unit and only via the central processing unit to the wireless power receiver, the communication circuit is configured for sending a third authentication request signal to a first server, wherein the communication circuit is further configured for receiving a third authentication information, according to the third authentication request signal, from the first server.
A method of operating a vehicle having a drive shaft test mode comprising the steps of: entering the drive shaft test mode, receiving a command to position a yoke to drive the shaft, regulating the shaft speed so as to be below a predefined threshold, and determining whether a drive shaft is available based on whether an actual drive shaft speed is detected above the predefined threshold. entering the drive shaft test mode, receiving a command to position a yoke to drive the shaft, regulating the shaft speed so as to be below a predefined threshold, and determining whether a drive shaft is available based on whether an actual drive shaft speed is detected above the predefined threshold.
A catalyst coated membrane for an alkaline membrane fuel cell (AMFC) comprising: an anion conducting alkaline membrane; and a catalyst layer applied adjacent the membrane, wherein the catalyst layer comprises: (a) silver-containing nano-powder particles, not supported on carbon particles; and (b) an anion conducting ionomer, wherein the weight ratio of the ionomer to the silver-containing nano-particles is up to 10%. an anion conducting alkaline membrane; and a catalyst layer applied adjacent the membrane, wherein the catalyst layer comprises: (a) silver-containing nano-powder particles, not supported on carbon particles; and (b) an anion conducting ionomer, wherein the weight ratio of the ionomer to the silver-containing nano-particles is up to 10%. (a) silver-containing nano-powder particles, not supported on carbon particles; and (b) an anion conducting ionomer, wherein the weight ratio of the ionomer to the silver-containing nano-particles is up to 10%.
An internal combustion engine, comprising: an engine block; a cylinder head mounted on said engine block, said cylinder head including a combustion face forming a portion of a combustion chamber; a first intake valve port formed in said cylinder head, said first intake valve port including a first intake valve port opening; a second intake valve port formed in said cylinder head, said second intake valve port including a second intake valve port opening; and an exhaust valve port formed in said cylinder head, said exhaust valve port including an exhaust valve port opening, characterized in that said combustion face includes a pent-roof portion and a hemispherical shaped portion, said first intake valve port opening is formed in said pent-roof portion, said second intake valve port opening is formed in said pent-roof portion, and said exhaust valve port opening is formed in said hemispherical shaped portion. an engine block; a cylinder head mounted on said engine block, said cylinder head including a combustion face forming a portion of a combustion chamber; a first intake valve port formed in said cylinder head, said first intake valve port including a first intake valve port opening; a second intake valve port formed in said cylinder head, said second intake valve port including a second intake valve port opening; and an exhaust valve port formed in said cylinder head, said exhaust valve port including an exhaust valve port opening, characterized in that said combustion face includes a pent-roof portion and a hemispherical shaped portion, said first intake valve port opening is formed in said pent-roof portion, said second intake valve port opening is formed in said pent-roof portion, and said exhaust valve port opening is formed in said hemispherical shaped portion.
A strip tilling system, including: at least one strip tilling unit having a support frame, and a tilling member mounted to the support frame; a positioning system; map data relating to a field to be tilled, said map data including data identifying areas of compacted ground in the field; and a control system for adjusting the position of the tilling member with respect to the support frame, wherein said control system is arranged to automatically adjust the position of the tilling member with respect to the support frame when the control system determines from signals received from the positioning system, and from the map data, that the tilling member is located at an area of compacted ground; characterized in that at least some of the areas of compacted soil in the map data relate to positions of vehicle tyre tracks, and the control system is arranged to adjust the position of the tilling member to increase the tilling depth when it determines that the tilling member is tilling on a tyre track.
A rubber composite in particulate form, the composite comprising: rubber; at least one first powdered additive, at least one second powdered additive, wherein said first and second additives are mineral-based powders, each being independently selected from the group consisting of limestone, hydrated lime, cement, silica, and mica and wherein the at least one first additive is contained within the internal structure of the rubber composite and the at least one second additive is present at the external surface of the rubber composite; and at most 20 wt%, preferably 10 and 15 wt%, of at least one oil being a heavy fraction oil distillate selected from bitumens characterized by a PEN grade of 100 or higher (according to ASTM D5 / D5M-13), said rubber having an internal structure and an external surface, wherein said oil is substantially contained within the internal structure of the rubber composite, and wherein the rubber's external surface is substantially oil-dry. rubber; at least one first powdered additive, at least one second powdered additive, wherein said first and second additives are mineral-based powders, each being independently selected from the group consisting of limestone, hydrated lime, cement, silica, and mica and wherein the at least one first additive is contained within the internal structure of the rubber composite and the at least one second additive is present at the external surface of the rubber composite; and at most 20 wt%, preferably 10 and 15 wt%, of at least one oil being a heavy fraction oil distillate selected from bitumens characterized by a PEN grade of 100 or higher (according to ASTM D5 / D5M-13), said rubber having an internal structure and an external surface, wherein said oil is substantially contained within the internal structure of the rubber composite, and wherein the rubber's external surface is substantially oil-dry.
A method of producing a vertical, deviated or horizontal gas well having an annular space defined by a well casing and a concentrically disposed production tubing, said well having an annulus and a lower producing zone open to the production tubing, wherein the annulus is isolated from the lower producing zone by a packer, comprising the steps of: (a) opening a communication path through the tubing into the annulus, and if necessary, removing any fluid in the annulus; (b) providing a crossover valve assembly, within the production tubing or integral with production tubing, and exposed to the annulus, wherein the crossover valve assembly has an outer housing, an inner production tube (11, 11A), a pilot section responsive to external pressure above a predetermined pressure, or responsive to an electrical actuator (132, 212) to open an activation passage, a power section and a crossover port; and (c) injecting gas into the annulus to at least the closing pressure to activate the pilot section, thereby exposing the power section to the annulus, thereby opening the crossover port and allowing injected gas to enter the production tubing, wherein the injected gas lifts liquids in the production tubing to the surface; characterised in that: (d) the power section is responsive to pressure in the activation passage to open an injection opening through the outer housing; and (e) the crossover valve assembly further comprises a crossover valve responsive to the external pressure via the injection opening to open the crossover port, allowing fluid communication from outside the outer housing to within the inner production tube. (a) opening a communication path through the tubing into the annulus, and if necessary, removing any fluid in the annulus; (b) providing a crossover valve assembly, within the production tubing or integral with production tubing, and exposed to the annulus, wherein the crossover valve assembly has an outer housing, an inner production tube (11, 11A), a pilot section responsive to external pressure above a predetermined pressure, or responsive to an electrical actuator (132, 212) to open an activation passage, a power section and a crossover port; and (c) injecting gas into the annulus to at least the closing pressure to activate the pilot section, thereby exposing the power section to the annulus, thereby opening the crossover port and allowing injected gas to enter the production tubing, wherein the injected gas lifts liquids in the production tubing to the surface; (d) the power section is responsive to pressure in the activation passage to open an injection opening through the outer housing; and (e) the crossover valve assembly further comprises a crossover valve responsive to the external pressure via the injection opening to open the crossover port, allowing fluid communication from outside the outer housing to within the inner production tube.