mhurhangee/patent-ind-claim-en huggingface dataset:
Processing circuitry for a high efficiency, HE, station , STA, the processing circuitry comprising circuitry to: decode a trigger frame from a HE access point , AP, the trigger frame comprising an indication of a random access, RA, resource unit, RU, RA-RU, available for STAs not associated with the HE AP, wherein the HE STA is not associated with the HE AP; configure the HE STA to transmit a HE trigger based, TB, physical layer, PHY, protocol data unit, PPDU, HE TB PPDU, to the HE AP in accordance with the RA-RU; and decode a multi-station block acknowledgement, BlockAck, frame from the HE AP. the multi-station BlockAck frame comprising a block acknowledgement, BA, information field, the BA information field comprising an association identification, AID, subfield, the AID subfield indicating a first predetermined value, the first predetermined value indicating an identifier for an unassociated STA, an acknowledgement, ACK, type subfield, the ACK type subfield indicating a second predetermined value, a traffic identification, TID, subfield, the TID subfield indicating a third predetermined value, and a subfield, the subfield indicating a media access control, MAC, address of the HE STA, the MAC address indicating the BA information field is for the HE STA and indicating that the multi-station BlockAck frame acknowledges the HE TB PPDU. decode a trigger frame from a HE access point , AP, the trigger frame comprising an indication of a random access, RA, resource unit, RU, RA-RU, available for STAs not associated with the HE AP, wherein the HE STA is not associated with the HE AP; configure the HE STA to transmit a HE trigger based, TB, physical layer, PHY, protocol data unit, PPDU, HE TB PPDU, to the HE AP in accordance with the RA-RU; and decode a multi-station block acknowledgement, BlockAck, frame from the HE AP. the multi-station BlockAck frame comprising a block acknowledgement, BA, information field, the BA information field comprising an association identification, AID, subfield, the AID subfield indicating a first predetermined value, the first predetermined value indicating an identifier for an unassociated STA, an acknowledgement, ACK, type subfield, the ACK type subfield indicating a second predetermined value, a traffic identification, TID, subfield, the TID subfield indicating a third predetermined value, and a subfield, the subfield indicating a media access control, MAC, address of the HE STA, the MAC address indicating the BA information field is for the HE STA and indicating that the multi-station BlockAck frame acknowledges the HE TB PPDU.
An insulation material comprising an insulation material substrate with a substrate surface , the insulation material further having a plurality of protrusions affixed to or integrated into substrate surface, each protrusion having an abutting surface distal to a protrusion base and a protrusion body connecting the abutting surface and the protrusion base, and each protrusion having an abutting surface height of at least 2 mm, wherein the abutting surface height is the shortest distance between the plane of the abutting surface and the plane of the protrusion base, and wherein the insulation material substrate is cellular glass.
A method of providing industrial system cybersecurity event detection and corresponding response, comprising: receiving sensor outputs from one or more industrial sensors in the industrial system , the industrial sensors being used to monitor and control an industrial process in the industrial system ; deriving sensor data from the sensor outputs, the sensor data reflecting one or more industrial processing aspects of the industrial process; processing the sensor data using one or more pattern recognition algorithms , the one or more pattern recognition algorithms trained to recognize potentially suspicious/malicious patterns that indicate a potential cyberattack on the industrial system ; determining whether the one or more pattern recognition algorithms recognize the sensor data as a potentially suspicious/malicious pattern; and executing a malicious pattern response process in response to the sensor data being recognized as a potentially suspicious/malicious pattern; characterized in that the method further comprises: injecting training patterns at different injection points in the industrial system during training of the one or more pattern recognition algorithms to validate the one or more pattern recognition algorithms against real-world system effects, including processing latency. receiving sensor outputs from one or more industrial sensors in the industrial system , the industrial sensors being used to monitor and control an industrial process in the industrial system ; deriving sensor data from the sensor outputs, the sensor data reflecting one or more industrial processing aspects of the industrial process; processing the sensor data using one or more pattern recognition algorithms , the one or more pattern recognition algorithms trained to recognize potentially suspicious/malicious patterns that indicate a potential cyberattack on the industrial system ; determining whether the one or more pattern recognition algorithms recognize the sensor data as a potentially suspicious/malicious pattern; and executing a malicious pattern response process in response to the sensor data being recognized as a potentially suspicious/malicious pattern; characterized in that the method further comprises: injecting training patterns at different injection points in the industrial system during training of the one or more pattern recognition algorithms to validate the one or more pattern recognition algorithms against real-world system effects, including processing latency.
A lithium primary battery comprising: a wound electrode body obtained by winding a sheet-like positive electrode, a sheet-like negative electrode, and a separator interposed between the positive electrode and the negative electrode; and a nonaqueous electrolyte solution, wherein the positive electrode includes manganese dioxide as a positive electrode active material, the negative electrode includes at least one selected from the group consisting of metallic lithium and lithium alloys, and has a first principal surface and a second principal surface opposite to the first principal surface, an entire surface of each of the first principal surface and the second principal surface faces the positive electrode, and a total area of the first principal surface and the second principal surface is 100 cm 2 or more and 180 cm 2 or less, excluding the area of the first principal surface and the second principal surface having neither metallic lithium nor lithium alloy, and characterized in that the negative electrode has a design capacity of 2.7 Ah or more and in that the battery size has a diameter of 17.4 mm and a height of 50 mm. a wound electrode body obtained by winding a sheet-like positive electrode, a sheet-like negative electrode, and a separator interposed between the positive electrode and the negative electrode; and a nonaqueous electrolyte solution, wherein the positive electrode includes manganese dioxide as a positive electrode active material, the negative electrode includes at least one selected from the group consisting of metallic lithium and lithium alloys, and has a first principal surface and a second principal surface opposite to the first principal surface, an entire surface of each of the first principal surface and the second principal surface faces the positive electrode, and a total area of the first principal surface and the second principal surface is 100 cm 2 or more and 180 cm 2 or less, excluding the area of the first principal surface and the second principal surface having neither metallic lithium nor lithium alloy, and characterized in that the negative electrode has a design capacity of 2.7 Ah or more and in that the battery size has a diameter of 17.4 mm and a height of 50 mm.
A method for heat treatment of water of a first vessel using a system for heat treatment of water, the system comprising: a system inlet ; a system outlet ; a heat application section ; a heat recovering section ; and a heat treatment piping system, which system does not form part of a fixed installation of the first vessel, the water comprising ballast water of the first vessel and/or waste water from hull cleaning of the first vessel, the method comprising: - providing a flow of the water from the system inlet towards the system outlet via: a first part of the heat recovering section ; the heat application section; and a second part of the heat recovering section ; such that the water is flowing: from the system inlet to the first part of the heat recovering section ; from the first part of the heat recovering section to the heat application section ; from the heat application section to the second part of the heat recovering section ; and from the second part of the heat recovering section to the system outlet ; wherein the flow of the water being provided using the heat treatment piping system; - applying heat to the water at the heat application section, such that the water is heated while flowing through the heat application section; and - recovering heat from the heated water at the heat recovering section by having the water, which is flowing through the second part of the heat recovering section, pre-heating the water, which is flowing through the first part of the heat recovering section, such that heat is exchanged from the second part of the heat recovering section to the first part of the heat recovering section; wherein both the step of applying heat and the step of recovering heat occurs outside a fixed installation of the first vessel . - providing a flow of the water from the system inlet towards the system outlet via: a first part of the heat recovering section ; the heat application section; and a second part of the heat recovering section ; such that the water is flowing: from the system inlet to the first part of the heat recovering section ; from the first part of the heat recovering section to the heat application section ; from the heat application section to the second part of the heat recovering section ; and from the second part of the heat recovering section to the system outlet ; wherein the flow of the water being provided using the heat treatment piping system; - applying heat to the water at the heat application section, such that the water is heated while flowing through the heat application section; and - recovering heat from the heated water at the heat recovering section by having the water, which is flowing through the second part of the heat recovering section, pre-heating the water, which is flowing through the first part of the heat recovering section, such that heat is exchanged from the second part of the heat recovering section to the first part of the heat recovering section;
A self-heating product pouch comprising: a first thin flexible material that surrounds and defines a product compartment ; and a second thin flexible material coupled to an outwardly-facing surface of the first thin flexible material to define a first heater compartment that is outside, but thermally coupled to, the product compartment ; a first thin porous substrate inside the first heater compartment ; a granular reactant distributed throughout the first thin porous substrate ; a frangible container inside the first heater compartment ; and a liquid reactant inside the frangible container , wherein the granular reactant and the liquid reactant are adapted to react exothermically upon contact with one another, and wherein at least the first heater compartment is vacuum packed. a first thin flexible material that surrounds and defines a product compartment ; and a second thin flexible material coupled to an outwardly-facing surface of the first thin flexible material to define a first heater compartment that is outside, but thermally coupled to, the product compartment ; a first thin porous substrate inside the first heater compartment ; a granular reactant distributed throughout the first thin porous substrate ; a frangible container inside the first heater compartment ; and a liquid reactant inside the frangible container , wherein the granular reactant and the liquid reactant are adapted to react exothermically upon contact with one another, and wherein at least the first heater compartment is vacuum packed.
Sliding guide shoe of an elevator, which sliding guide shoe comprises at least a slide pad and a body part , which comprises at least a slide pad space for the slide pad as well as at least one fixing part for fixing the sliding guide shoe to its mounting base , wherein the body part is essentially the same in its cross-sectional profile throughout its whole length, characterized in that a profile groove is rectangular in its cross-sectional shape, and opens on both sides of the body part in the side direction of the sliding guide shoe.
A glutamine synthetase knock-out (GS-KO) cell comprising a sequence encoding a heterologous lipid metabolism modifier (LMM) operatively linked to a sequence comprising a control region, wherein the sequence encoding the heterologous LMM is disposed in an integrated vector which further comprises a sequence encoding a selectable marker which when present allows survival or growth on media lacking proline, wherein the marker comprises a pyrroline-5-carboxylate synthase (P5CS) molecule; wherein the LMM is SCD1 or an isoform, or functional fragment thereof, or SREBF1 or an isoform, or functional fragment thereof.
A heat-driven pumping system comprising: a closed circuit for a first liquid , the closed circuit comprising a vaporization portion configured to receive heat from an external source and to cause vaporization of first liquid within the vaporization portion to thereby increase an amount of gas in the closed circuit, wherein the closed circuit is sealed such that the increase in the amount of gas increases a pressure exerted on the first liquid wherein the closed circuit has an expandable volume and the closed circuit is configured to cause the volume to expand when pressure exerted on the first liquid by gas in the closed circuit increases; a transfer means configured to convert the pressure exerted on the first liquid into a pumping force which is transferred to a pumping vessel for pumping a second liquid , wherein the transfer means is configured to provide a fixed relationship between a volume of the pumping vessel and the volume of the closed circuit; and characterized by means for adjusting the fixed relationship between the volume of the pumping vessel and the volume of the closed circuit so as to enable pre-setting of a position of a head of the second liquid in a discharge system coupled to the pumping vessel. a closed circuit for a first liquid , the closed circuit comprising a vaporization portion configured to receive heat from an external source and to cause vaporization of first liquid within the vaporization portion to thereby increase an amount of gas in the closed circuit, wherein the closed circuit is sealed such that the increase in the amount of gas increases a pressure exerted on the first liquid wherein the closed circuit has an expandable volume and the closed circuit is configured to cause the volume to expand when pressure exerted on the first liquid by gas in the closed circuit increases; a transfer means configured to convert the pressure exerted on the first liquid into a pumping force which is transferred to a pumping vessel for pumping a second liquid , wherein the transfer means is configured to provide a fixed relationship between a volume of the pumping vessel and the volume of the closed circuit; and characterized by means for adjusting the fixed relationship between the volume of the pumping vessel and the volume of the closed circuit so as to enable pre-setting of a position of a head of the second liquid in a discharge system coupled to the pumping vessel.
A method for making a glass ribbon , comprising: - flowing a glass into a caster having a width ( W cast ) from about 100 mm to about 5 m and a thickness (t) from about 1 mm to about 500 mm to form a cast glass ; - cooling the cast glass in the caster to a viscosity of at least 10 7 Pa·s (10 8 Poise); - conveying the cast glass from the caster ; - drawing the cast glass from the caster , the drawing comprising heating the cast glass to an average viscosity of less than 10 6 Pa·s (10 7 Poise) and drawing the cast glass into a glass ribbon having a width ( W ribbon ) that is less than W cast ; and thereafter - cooling the glass ribbon to ambient temperature, wherein the cast glass during the cooling, conveying and drawing steps is at about 50 °C or higher. - flowing a glass into a caster having a width ( W cast ) from about 100 mm to about 5 m and a thickness (t) from about 1 mm to about 500 mm to form a cast glass ; - cooling the cast glass in the caster to a viscosity of at least 10 7 Pa·s (10 8 Poise); - conveying the cast glass from the caster ; - drawing the cast glass from the caster , the drawing comprising heating the cast glass to an average viscosity of less than 10 6 Pa·s (10 7 Poise) and drawing the cast glass into a glass ribbon having a width ( W ribbon ) that is less than W cast ; and thereafter - cooling the glass ribbon to ambient temperature,
Device for automated detection of orientation and/or location of a person , comprising: - an image data interface for obtaining image data of a person , said image data comprising a sequence of image frames over time, - a motion detector for detecting motion within said image data and for determining motion images representing motion detected within said image data from one image frame to another image frame, - a motion intensity detector for identifying motion hotspots by accumulating said motion images to obtain one or more accumulation images and by identifying image areas, which have a size above a size threshold or the largest sizes within one or more accumulation images and which show motion above a motion threshold or the most intensive motions in said one or more accumulation images, wherein said identified image areas represent motion hotspots, and - a person detector for detecting the orientation and/or location of at least part of the person based on the identified motion hotspots. - an image data interface for obtaining image data of a person , said image data comprising a sequence of image frames over time, - a motion detector for detecting motion within said image data and for determining motion images representing motion detected within said image data from one image frame to another image frame, - a motion intensity detector for identifying motion hotspots by accumulating said motion images to obtain one or more accumulation images and by identifying image areas, which have a size above a size threshold or the largest sizes within one or more accumulation images and which show motion above a motion threshold or the most intensive motions in said one or more accumulation images, wherein said identified image areas represent motion hotspots, and - a person detector for detecting the orientation and/or location of at least part of the person based on the identified motion hotspots.
Method for transferring a winding mandrel , in particular with vertical alignment and preferably mounted exclusively in the vicinity of its top end, of a film , preferably of a wound stretch film, wound onto an unpacking device, wherein the film wound onto the winding mandrel , on reaching the transfer position of the winding mandrel , is drawn off by at least one transfer device from the winding mandrel , and is guided to a disposal region.
A camera pod stabilization assembly , comprising: • an intermediate attachment ; wherein the intermediate attachment comprises a first end and a second end , and a first protruding member ; • a camera arm wherein the camera arm is pivotably coupled to the intermediate attachment at the first end via a first pin to form a first axis ; and • a base wherein the base is pivotably coupled to the intermediate attachment at the second end via a second pin to form a second axis , characterized in that the camera arm includes a first receiving cavity to receive the first protruding member , wherein the first receiving cavity comprises at least one ribbing member engaging the first protruding member when in a first position to facilitate the transfer of the vibrations or forces from the camera arm through the intermediate attachment , to the base . • an intermediate attachment ; wherein the intermediate attachment comprises a first end and a second end , and a first protruding member ; • a camera arm wherein the camera arm is pivotably coupled to the intermediate attachment at the first end via a first pin to form a first axis ; and • a base wherein the base is pivotably coupled to the intermediate attachment at the second end via a second pin to form a second axis , characterized in that the camera arm includes a first receiving cavity to receive the first protruding member , wherein the first receiving cavity comprises at least one ribbing member engaging the first protruding member when in a first position to facilitate the transfer of the vibrations or forces from the camera arm through the intermediate attachment , to the base . characterized in that the camera arm includes a first receiving cavity to receive the first protruding member , wherein the first receiving cavity comprises at least one ribbing member engaging the first protruding member when in a first position to facilitate the transfer of the vibrations or forces from the camera arm through the intermediate attachment , to the base .
Sintered solid composite material combining - a mineral pigment in the form of discrete particles each comprising a coloured core and a coating surrounding the core, said coating being adapted for allowing light to pass; and - a matrix based on metal oxide or metalloid oxide, said matrix being adapted for allowing light to pass, wherein the coating of the pigment particles is adapted for avoiding interactions between the coloured cores during sintering. - a mineral pigment in the form of discrete particles each comprising a coloured core and a coating surrounding the core, said coating being adapted for allowing light to pass; and - a matrix based on metal oxide or metalloid oxide, said matrix being adapted for allowing light to pass,
A catalyst for hydrocracking comprising a carrier containing a porous oxide comprising a solid acid oxide, and nickel and molybdenum supported on the carrier, wherein the catalyst for hydrocracking has been subjected to a hydrogen reduction treatment; wherein the catalyst for hydrocracking has a mass ratio (X/(X+Y)) of a nickel content (X) in terms of nickel oxide (NiO) to the sum of the nickel content (X) in terms of nickel oxide (NiO) and a molybdenum content (Y) in terms of molybdenum oxide (MoO a ) of 0.55 or more and 0.75 or less; and wherein the solid acid oxide is at least one selected from zeolite, silica-alumina, alumina-boria, alumina-titania, silica-zirconia, and silicoaluminophosphate. wherein the catalyst for hydrocracking has been subjected to a hydrogen reduction treatment; wherein the catalyst for hydrocracking has a mass ratio (X/(X+Y)) of a nickel content (X) in terms of nickel oxide (NiO) to the sum of the nickel content (X) in terms of nickel oxide (NiO) and a molybdenum content (Y) in terms of molybdenum oxide (MoO a ) of 0.55 or more and 0.75 or less; and wherein the solid acid oxide is at least one selected from zeolite, silica-alumina, alumina-boria, alumina-titania, silica-zirconia, and silicoaluminophosphate.