mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving a frame at a Station, STA, in a wireless communication system, the method comprising: receiving a frame including a Sequence Control, SC, field, the frame being encrypted using a packet number, PN, and the SC field including a sequence number for the frame; further comprising: determining a first portion of the PN using the SC field and a second portion of the PN using a partial PN value stored in the STA; and performing decryption for the frame using the PN, wherein in determining the second portion of the PN, the STA increases the stored partial PN value by 1 if the decryption for the frame is to be performed after block Acknowledgment, ACK, reordering, and the sequence number for the frame is smaller than a previous sequence number, and wherein the STA does not increase the stored partial PN value by 1 if the decryption for the frame is to be performed before the block ACK reordering. receiving a frame including a Sequence Control, SC, field, the frame being encrypted using a packet number, PN, and the SC field including a sequence number for the frame; further comprising: determining a first portion of the PN using the SC field and a second portion of the PN using a partial PN value stored in the STA; and performing decryption for the frame using the PN, wherein in determining the second portion of the PN, the STA increases the stored partial PN value by 1 if the decryption for the frame is to be performed after block Acknowledgment, ACK, reordering, and the sequence number for the frame is smaller than a previous sequence number, and wherein the STA does not increase the stored partial PN value by 1 if the decryption for the frame is to be performed before the block ACK reordering. determining a first portion of the PN using the SC field and a second portion of the PN using a partial PN value stored in the STA; and performing decryption for the frame using the PN, wherein in determining the second portion of the PN, the STA increases the stored partial PN value by 1 if the decryption for the frame is to be performed after block Acknowledgment, ACK, reordering, and the sequence number for the frame is smaller than a previous sequence number, and wherein the STA does not increase the stored partial PN value by 1 if the decryption for the frame is to be performed before the block ACK reordering.
A process for preparing an Iron-exchanged zeolite, the process comprising combining a zeolite with Iron cations in an aqueous medium such that the Iron cations are exchanged into or onto the zeolite to thus form an lron(lll)-exchanged zeolite, wherein the exchange of Iron into or onto the zeolite is carried out at a temperature of 40 °C to 70 °C for a time of 30 to 90 minutes, wherein the zeolite has a chabazite structure and wherein the aqueous medium further comprises a buffering agent which comprises ammonium acetate.
A process cartridge detachably mountable to an image forming apparatus, said process cartridge comprising: an electrophotographic photosensitive member; a developer carrying member for carrying a developer (t) to develop an electrostatic latent image formed on said electrophotographic photosensitive member; a development frame member (10, 81, 82) rotatably supporting first and second longitudinal ends of the developer carrying member; a photosensitive member frame member rotatably supporting said electrophotographic photosensitive member at the first end; and a supporting member mounted to said photosensitive member frame member at the second end, wherein said photosensitive member frame member swingably supports said development frame member (10, 81, 82) at the first end; characterized in that a first supporting portion of said supporting member swingably supports said development frame member (10, 81, 82) at the second end and a second supporting portion of said supporting member as a shaft bearing portion rotatably supports said electrophotographic photosensitive member at the second end. an electrophotographic photosensitive member; a developer carrying member for carrying a developer (t) to develop an electrostatic latent image formed on said electrophotographic photosensitive member; a development frame member (10, 81, 82) rotatably supporting first and second longitudinal ends of the developer carrying member; a photosensitive member frame member rotatably supporting said electrophotographic photosensitive member at the first end; and a supporting member mounted to said photosensitive member frame member at the second end, wherein said photosensitive member frame member swingably supports said development frame member (10, 81, 82) at the first end; characterized in that a first supporting portion of said supporting member swingably supports said development frame member (10, 81, 82) at the second end and a second supporting portion of said supporting member as a shaft bearing portion rotatably supports said electrophotographic photosensitive member at the second end.
A protective cover comprising at least one protective cover element variable in length and comprising a frame element, the frame element being capable of being connected to the protective cover element and the protective cover element being essentially made of a foldable plastic material, characterised in that the protective cover element comprises at least one holding means and the frame element comprises at least one fastening means in the area of a first longitudinal edge, the connection between the holding means and the fastening means being a detachable, in particular force-fitting and/or interlocking, and direct snap connection.
A rope having a central bundle, a first layer which wraps said central bundle, a second layer which wraps said first layer, a third layer which wraps said second layer, wherein the first layer and the second layer are wrapped in the same wrapping direction, and the third layer is wrapped in a direction which is opposite to the wrapping direction of the first layer and the second layer, the central bundle, provided at the center, has a central diameter, characterized in that the first layer consists of four bundles, each of which is a first type bundle with a first diameter the second layer consists of four bundles, each of which is a second type bundle with a second diameter the third layer consists of twenty bundles, each of which is a third type bundle with a third diameter. the central bundle, provided at the center, has a central diameter, characterized in that the first layer consists of four bundles, each of which is a first type bundle with a first diameter the second layer consists of four bundles, each of which is a second type bundle with a second diameter the third layer consists of twenty bundles, each of which is a third type bundle with a third diameter.
A tire comprising a tread configured to come into contact with a road surface, wherein the tread comprises a cap layer, an intermediate layer formed such that a loss tangent (LTm) of the intermediate layer at 30°C is less than a loss tangent (LTc) of the cap layer at 30°C, and a base layer formed such that a loss tangent (LTb) of the base layer at 30°C is less than the loss tangent (LTm) of the intermediate layer at 30°C, wherein the intermediate layer is disposed outwardly of the base layer in a radial direction, and the cap layer is disposed outwardly of the intermediate layer in the radial direction, wherein an outer end of the cap layer is disposed inwardly of an outer end of the intermediate layer in the axial direction, and wherein a difference between an axial width of the cap layer and an axial width of the base layer is not less than -10 mm and not greater than 10 mm, characterized in that the outer end of the intermediate layer is disposed outwardly of an outer end of the base layer in an axial direction, and a difference between an axial width of the intermediate layer and the axial width of the cap layer is not less than 10 mm and not greater than 30 mm. a tread configured to come into contact with a road surface, wherein the tread comprises a cap layer, an intermediate layer formed such that a loss tangent (LTm) of the intermediate layer at 30°C is less than a loss tangent (LTc) of the cap layer at 30°C, and a base layer formed such that a loss tangent (LTb) of the base layer at 30°C is less than the loss tangent (LTm) of the intermediate layer at 30°C, wherein the intermediate layer is disposed outwardly of the base layer in a radial direction, and the cap layer is disposed outwardly of the intermediate layer in the radial direction, wherein an outer end of the cap layer is disposed inwardly of an outer end of the intermediate layer in the axial direction, and wherein a difference between an axial width of the cap layer and an axial width of the base layer is not less than -10 mm and not greater than 10 mm, characterized in that the outer end of the intermediate layer is disposed outwardly of an outer end of the base layer in an axial direction, and a difference between an axial width of the intermediate layer and the axial width of the cap layer is not less than 10 mm and not greater than 30 mm.
A breathing assistance apparatus adapted to deliver humidified gases at a desired level of humidity, flow and temperature for treatment of a patient comprising: a) gases supply means providing a flow of gases, b) a humidifier having a chamber adapted to receive a volume of water and a chamber heater to heat said water in said chamber, said chamber including an inlet and an outlet, c) transportation pathway means to convey said humidified gases from said humidifier to said patient, and characterised in that said apparatus further comprises: d) a controller (9, 18) having stored instructions to complete the following steps at the end of said treatment of said patient: i) switch off power to said chamber heater, ii) set said flow of gases from said gases supply means, and wherein said transportation pathway means comprises a pathway heater; said flow of gases is set to a predetermined flow for a predetermined time, said pathway heater is operable to deliver heat to said flow of gases over the predetermined time, and said gases supply means is switched off after said predetermined time. a) gases supply means providing a flow of gases, b) a humidifier having a chamber adapted to receive a volume of water and a chamber heater to heat said water in said chamber, said chamber including an inlet and an outlet, c) transportation pathway means to convey said humidified gases from said humidifier to said patient, and d) a controller (9, 18) having stored instructions to complete the following steps at the end of said treatment of said patient: i) switch off power to said chamber heater, ii) set said flow of gases from said gases supply means, and wherein said transportation pathway means comprises a pathway heater; said flow of gases is set to a predetermined flow for a predetermined time, said pathway heater is operable to deliver heat to said flow of gases over the predetermined time, and said gases supply means is switched off after said predetermined time. i) switch off power to said chamber heater, ii) set said flow of gases from said gases supply means, and
An apparatus for draining and forming curd, said apparatus comprising: a casing arranged in a vertical direction, a module which is removably inserted into the casing and comprises a column arranged to extend in the vertical direction, a distribution arrangement arranged above the module to distribute a mixture of curd and whey into the column, and a base unit arranged beneath the module to receive drained curd from the column, wherein the column comprises non-perforated sections (B1-B3) and perforated sections (P1-P3), which alternate in the vertical direction of the column, said module further comprising a plurality of horizontal dividers, which are arranged to define a vertical sequence of drainage chambers (D1-D3) inside the casing, each of the drainage chambers (D1-D3) being configured for receiving whey from the mixture in the column through at least one perforated section (P1-P3) of the column, and wherein the vertical sequence of drainage chambers (D1-D3) comprises a lower drainage chamber (D2; D3), which is arranged beneath an upper drainage chamber (D1; D2), characterized in that the interior volume of the lower drainage chamber (D2; D3) is smaller than the interior volume of the upper drainage chamber (D1; D2). a casing arranged in a vertical direction, a module which is removably inserted into the casing and comprises a column arranged to extend in the vertical direction, a distribution arrangement arranged above the module to distribute a mixture of curd and whey into the column, and a base unit arranged beneath the module to receive drained curd from the column, wherein the column comprises non-perforated sections (B1-B3) and perforated sections (P1-P3), which alternate in the vertical direction of the column, said module further comprising a plurality of horizontal dividers, which are arranged to define a vertical sequence of drainage chambers (D1-D3) inside the casing, each of the drainage chambers (D1-D3) being configured for receiving whey from the mixture in the column through at least one perforated section (P1-P3) of the column, and wherein the vertical sequence of drainage chambers (D1-D3) comprises a lower drainage chamber (D2; D3), which is arranged beneath an upper drainage chamber (D1; D2), characterized in that the interior volume of the lower drainage chamber (D2; D3) is smaller than the interior volume of the upper drainage chamber (D1; D2).
A shaft adapter unit, having a gear cover, a hub arranged in the gear cover, and a shaft adapter supported in the hub, wherein the shaft adapter is supported in the hub by two mutually axially spaced shaft bearings (5, 6), wherein the shaft adapter has an axial receiving bore at one end, wherein a non-circular axial portion for form-fitting connection to a plug-in shaft is formed in the receiving bore, wherein the axial portion is arranged axially between the shaft bearings (5, 6), and wherein the gear cover has a frustoconical base body, characterised in that the hub is formed in one piece with the base body as a cast part and in that the hub projects into an interior of the base body, wherein the hub is arranged in a solid angle region enclosed by the base body.
An apparatus for transferring heat between a thermal load and a surrounding medium comprising: a heat conducting base plate comprising a first base plate surface, which is configured to be in thermal contact with a thermal load, and an opposing second base plate surface; and a heat transferring impeller, wherein the heat transferring impeller is supported by an air bearing comprising a gas filled gap region sandwiched between abutting surfaces of the base plate and the heat transferring impeller, said gas filled gap region having a low thickness providing a substantially low thermal resistance; and, wherein said heat transferring impeller comprises fins and is movable relative to said heat conducting base plate. a heat conducting base plate comprising a first base plate surface, which is configured to be in thermal contact with a thermal load, and an opposing second base plate surface; and a heat transferring impeller, wherein the heat transferring impeller is supported by an air bearing comprising a gas filled gap region sandwiched between abutting surfaces of the base plate and the heat transferring impeller, said gas filled gap region having a low thickness providing a substantially low thermal resistance; and, wherein said heat transferring impeller comprises fins and is movable relative to said heat conducting base plate.
A method for solidifying a mass of liquid sulfur comprising the following operative phases: (a) pouring a mass of liquid sulfur into a solidification basin and forming a layer of sulfur which spreads over the surface onto which it is poured at a spreading rate ranging from 1 to 10 cm/s, preferably from 1 to 5 cm/s, and interrupting said pouring when said layer of sulfur has reached a thickness ranging from 5 to 15 cm, preferably from 7.5 to 10 cm; (b) cooling said layer of sulfur until the temperature of its upper surface is lower than or equal to 65°C, more preferably equal to or lower than 60°C, and forming a block of solid sulfur. (a) pouring a mass of liquid sulfur into a solidification basin and forming a layer of sulfur which spreads over the surface onto which it is poured at a spreading rate ranging from 1 to 10 cm/s, preferably from 1 to 5 cm/s, and interrupting said pouring when said layer of sulfur has reached a thickness ranging from 5 to 15 cm, preferably from 7.5 to 10 cm; (b) cooling said layer of sulfur until the temperature of its upper surface is lower than or equal to 65°C, more preferably equal to or lower than 60°C, and forming a block of solid sulfur.
A decoupling mat for a floor covering construction with a web- or plate-like compensating element, having shapings projecting in a first direction starting from a supporting plane, arranged regularly and spaced apart from each other, which form a level contact surface spaced apart from the supporting plane and between which channels, which are open in the first direction, run, each channel extending along multiple shapings from a first side edge of the compensating element to a second side edge of the compensating element, wherein each channel consists of multiple merging channel sections (4, 5), the respective end regions of which can be connected by a section line running within the channel section (4, 5) in a straight line parallel to the supporting plane, wherein each channel has at least two channel sections (4, 5), the section lines of which are oriented at an angle to each other such that the channel does not form any straight lines of weakness extending over the course of the channel, and wherein a covering layer composed of a fleece is affixed to the compensating element so as to cover the channels, characterised in that at least some shapings have a non-convex surface shape, wherein in the case of a non-convex surface shape at least two points exist within the non-convex surface shape, the straight connecting line between said points running outside the surface shape at least in part.
An X-ray sensor, comprising: an array substrate including a pixel electrode formed so as to protrude from a surface thereof at a pixel region, wherein the pixel electrode includes a first metal material; a photoconductive substrate including an upper electrode, the upper electrode including a second metal material, and a photoconductive layer formed on a surface of the upper electrode and being in contact with the pixel electrode and having a PIN diode structure; and a bonding material filling a space around a contact region of the pixel electrode and the photoconductive layer so as to bond the array substrate and the photoconductive substrate, characterised in that the PIN diode structure includes the first metal material diffused from the pixel electrode and the second metal material diffused from the upper electrode, wherein the diffused materials act as an acceptor or as a donor, accordingly. an array substrate including a pixel electrode formed so as to protrude from a surface thereof at a pixel region, wherein the pixel electrode includes a first metal material; a photoconductive substrate including an upper electrode, the upper electrode including a second metal material, and a photoconductive layer formed on a surface of the upper electrode and being in contact with the pixel electrode and having a PIN diode structure; and a bonding material filling a space around a contact region of the pixel electrode and the photoconductive layer so as to bond the array substrate and the photoconductive substrate, characterised in that the PIN diode structure includes the first metal material diffused from the pixel electrode and the second metal material diffused from the upper electrode, wherein the diffused materials act as an acceptor or as a donor, accordingly.
A tantalum sputtering target, comprising 30 mass ppm or more and 100 mass ppm or less of oxygen as an essential component, wherein the purity of the tantalum sputtering target excluding oxygen and gas components is 99.998 mass % or higher, characterized by the tantalum sputtering target having a recrystallized structure wherein the average crystal grain size of the recrystallized structure is 120 μm or less; and variation in the crystal grain size within the target as determined by the method according to the description is ±20% or less.
A hair dyeing method comprising the following steps and: step: mixing a first agent comprising an alkaline agent and an oxidation dye precursor, a second agent comprising an oxidizing agent, and a third agent comprising one or more dyes selected from the group consisting of the following (A-1), (A-2), and (A-3), having a pH at 25°C of 7.5 or more and 12 or less when diluted to be 10 times by mass with water; and step: applying a mixed solution prepared in step on hair: step: mixing a first agent comprising an alkaline agent and an oxidation dye precursor, a second agent comprising an oxidizing agent, and a third agent comprising one or more dyes selected from the group consisting of the following (A-1), (A-2), and (A-3), having a pH at 25°C of 7.5 or more and 12 or less when diluted to be 10 times by mass with water; and step: applying a mixed solution prepared in step on hair: