mhurhangee/patent-ind-claim-en huggingface dataset:
A sheet for processing a wafer, comprising: a substrate having a glass transition temperature of -20°C to 45°C, wherein the substrate is a photo-cured product of a photo-curable composition comprising high-molecular weight polymer and monomer component; and an anti-blocking layer having a glass transition temperature of 80°C or more that is formed on the substrate and that comprises a thermally-cured resin component or an uncured resin component, wherein the thermally-cured resin component comprises an acrylic polymer that is cross-linked by a multifunctional cross-linking agent and the uncured resin component comprises an acrylic polymer or a cellulose resin, wherein the anti-blocking layer is for preventing blocking on a stainless steel plate when the sheet has been placed on the stainless steel plate, heated to 80°C and a force of 200 g applied and maintained for 5 min. a substrate having a glass transition temperature of -20°C to 45°C, wherein the substrate is a photo-cured product of a photo-curable composition comprising high-molecular weight polymer and monomer component; and an anti-blocking layer having a glass transition temperature of 80°C or more that is formed on the substrate and that comprises a thermally-cured resin component or an uncured resin component, wherein the thermally-cured resin component comprises an acrylic polymer that is cross-linked by a multifunctional cross-linking agent and the uncured resin component comprises an acrylic polymer or a cellulose resin, wherein the anti-blocking layer is for preventing blocking on a stainless steel plate when the sheet has been placed on the stainless steel plate, heated to 80°C and a force of 200 g applied and maintained for 5 min.
An auxiliary contact module , comprising: a housing ; a static contact secured in the housing, the static contact comprising a static contact 221,231) ; a movable contact comprising a movable contact, the movable contact mounted on a movable contact bracket , wherein the movable contact bracket is movably disposed in the housing to move between a closed position and an open position, wherein the movable contact and the static contact are electrically connected at the closed position, and the movable contact and the static contact are disconnected at the open position; wherein the auxiliary contact module further comprises an electrically insulating partition wall which extends across opposite surfaces of the housing and defines a closed cavity together with a portion of the opposite surfaces of the housing, wherein the static contact extends into the cavity so that the static contact is disposed in the cavity, and the movable contact and the movable contact bracket are disposed in the cavity, and characterised in that the partition wall is formed integrally with one of the opposite surfaces, and is connected to the other of the opposite surfaces by ultrasonic welding. a housing ; a static contact secured in the housing, the static contact comprising a static contact 221,231) ; a movable contact comprising a movable contact, the movable contact mounted on a movable contact bracket , wherein the movable contact bracket is movably disposed in the housing to move between a closed position and an open position, wherein the movable contact and the static contact are electrically connected at the closed position, and the movable contact and the static contact are disconnected at the open position; wherein the auxiliary contact module further comprises an electrically insulating partition wall which extends across opposite surfaces of the housing and defines a closed cavity together with a portion of the opposite surfaces of the housing, wherein the static contact extends into the cavity so that the static contact is disposed in the cavity, and the movable contact and the movable contact bracket are disposed in the cavity, and characterised in that the partition wall is formed integrally with one of the opposite surfaces, and is connected to the other of the opposite surfaces by ultrasonic welding.
A method for indicating protocol data unit session status, comprising: sending, by a network device , configuration signaling to a terminal device , wherein the configuration signaling instructs the terminal device to deactivate a protocol data unit session, PDU session, wherein the method further comprises, when the configuration signaling indicates to release an identifier, ID, of a first data radio bearer, DRB, or IDs of a first group of DRBs, instructing deactivation of at least one PDU session when the terminal device releases a DRB corresponding to the first DRB ID or DRBs corresponding to the first group of DRBs IDs based on the configuration signaling, such that the at least one PDU session has no DRB associated therewith. sending, by a network device , configuration signaling to a terminal device , wherein the configuration signaling instructs the terminal device to deactivate a protocol data unit session, PDU session, wherein the method further comprises, when the configuration signaling indicates to release an identifier, ID, of a first data radio bearer, DRB, or IDs of a first group of DRBs, instructing deactivation of at least one PDU session when the terminal device releases a DRB corresponding to the first DRB ID or DRBs corresponding to the first group of DRBs IDs based on the configuration signaling, such that the at least one PDU session has no DRB associated therewith.
A self-locking fixing device, comprising: an inner mandrel arranged to include a nail head and a nail rod extending away from the nail head ; and a bushing arranged to include a nail head bushing and a nail rod bushing extending away from the nail head bushing , a sidewall of the nail head bushing being provided with at least two elastic clamping units ; wherein if the inner mandrel is assembled with the bushing , the nail head is located in the nail head bushing , the nail rod is located in the nail rod bushing , and clamping portions of the elastic clamping units are engaged with an upper surface of the nail head to clamp the nail head in the nail head bushing , wherein a bottom of the nail rod bushing is arranged to include at least two elastic segments formed through cutting, and wherein if the inner mandrel is assembled with the bushing , the bottom of the nail rod forces the at least two elastic segments to spread out, and a relative clamping distance is formed between the at least two elastic segments which are spread out and the nail head bushing , wherein outer surfaces of the at least two elastic segments are smooth outer convex curved surfaces, characterized in that , if the inner mandrel is assembled with the bushing , in a direction extending from the nail head along the nail rod , the bottom of the nail rod does not go beyond the at least two elastic segments which are spread out.
Pressure swing adsorption method (PSA) for producing a gaseous stream enriched with a compound X from a gaseous input stream, using at least two adsorbers, each adsorber being subjected to a pressure cycle having a high pressure and a low pressure and comprising the following consecutive steps: a) adsorption at the high pressure of the cycle with production of the gaseous stream enriched with the compound X b) depressurisation down to the low pressure of the cycle c) elution at the low pressure by means of an elution gas d) repressurisation up to the high pressure characterised in that : - the elution gas comprises a fraction of a gaseous stream from the depressurisation of an adsorber and a fraction of the gaseous stream enriched with the compound X, - said fraction of the gaseous stream enriched with the compound X can be adjusted using adjustment means, and - the pressure cycle has a phase time corresponding to the duration of a pressure cycle divided by the number of adsorbers and the fraction of the gaseous stream enriched with the compound X is determined in accordance with the phase. a) adsorption at the high pressure of the cycle with production of the gaseous stream enriched with the compound X b) depressurisation down to the low pressure of the cycle c) elution at the low pressure by means of an elution gas d) repressurisation up to the high pressure - the elution gas comprises a fraction of a gaseous stream from the depressurisation of an adsorber and a fraction of the gaseous stream enriched with the compound X, - said fraction of the gaseous stream enriched with the compound X can be adjusted using adjustment means, and - the pressure cycle has a phase time corresponding to the duration of a pressure cycle divided by the number of adsorbers and the fraction of the gaseous stream enriched with the compound X is determined in accordance with the phase.
Unbleached packaging paper for sharp-edged objects and/or objects which have non-uniformly arranged, protruding, substantially non-deformable elevations on at least one of its surfaces, which consists of kraft pulp as the main constituent as well as fillers, starch, sizing agents and further process adjuvants as well as optionally coating agents, characterized in that it contains at least 95% primary pulp containing at least 80%, preferably at least 90%, in particular at least 95% pulp having an average length-weighted fibre length of at least 2.0 mm as well as less than 4.5%, preferably less than 4.0%, in particular less than 3.7% fillers as well as cationic starch and other process adjuvants, that it has a strain at break in the machine direction (MD) according to ISO 1924-3:2005 of at least 6.0%, preferably at least 6.5%, that it has a Kappa number ISO 302:2015 between 35 and 58, preferably 39 and 48 and that it has a puncture energy index according to DIN EN 14477:2004 measured at a test speed of 10.0 mm/min on an arbitrary side of the packaging paper in the range of 30 to 75 mJ.m 2 /kg, preferably 35 to 70 mJ.m 2 /kg.
A method of wireless communications by a base station, comprising: determining a reference signal configuration, indicating at least a periodicity, a reference signal density or a location of reference signals, for a user equipment, UE, based on one or more discontinuous reception, DRX, parameters; and signaling the reference signal configuration and the one or more DRX parameters to the UE. determining a reference signal configuration, indicating at least a periodicity, a reference signal density or a location of reference signals, for a user equipment, UE, based on one or more discontinuous reception, DRX, parameters; and signaling the reference signal configuration and the one or more DRX parameters to the UE.
A nanofiber comprising a jellyfish extract and at least one non-jellyfish-derived electrospinnable polymer, wherein the jellyfish extract comprises a jellyfish-derived collagen and a jellyfish-derived Q-mucin, characterized in that the nanofiber is produced by electro spinning.
Method for making a braking element, in particular a brake pad, including the following steps, in sequence: a) mixing an aluminosilicate source with an alkaline silicate solution to form a geopolymeric solution; b) adding a friction mix to the geopolymeric solution of the previous mixing step to obtain a slurry; c) casting the slurry in a mold at a temperature between room temperature and 120 °C and maintaining the slurry inside the hot mold for a time comprised between 5 minutes and 2 hours until the slurry is substantially solidified; d) demolding the solidified slurry to obtain a pad or block of solid friction material; e) attaching a backplate to the pad or block of solid friction material either as a consequence of the casting step or after the pad or block of solid friction material is demolded; f) curing for a time between 1 and 24 hours and at a temperature of between 60°C and 120°C the pad or block of solid friction material having the backplate attached to it. a) mixing an aluminosilicate source with an alkaline silicate solution to form a geopolymeric solution; b) adding a friction mix to the geopolymeric solution of the previous mixing step to obtain a slurry; c) casting the slurry in a mold at a temperature between room temperature and 120 °C and maintaining the slurry inside the hot mold for a time comprised between 5 minutes and 2 hours until the slurry is substantially solidified; d) demolding the solidified slurry to obtain a pad or block of solid friction material; e) attaching a backplate to the pad or block of solid friction material either as a consequence of the casting step or after the pad or block of solid friction material is demolded; f) curing for a time between 1 and 24 hours and at a temperature of between 60°C and 120°C the pad or block of solid friction material having the backplate attached to it.
Modular ground and air pole sensor for monitoring fruit production or a vineyard comprising: a plurality of sensor modules coupled to form a pole divided into a below-ground part comprising a first sensor module and an above-ground part comprising a plurality of second sensor modules, each said sensor module comprising: a tubular body; a male coupling for coupling to another of said sensor modules; a female coupling for receiving a male coupling from another of said sensor modules, the first sensor module, of the below-ground part, comprises a ground humidity sensor; and characterised in that each of the second sensor modules, of the above-ground part, comprises an air humidity sensor, a sensor for sensing air pressure, a sensor for sensing wind speed or for sensing wind speed and direction, a sensor for sensing visible-light solar radiation and UV solar radiation, a sensor for sensing leaf humidity, a sensor for sensing rainfall precipitation, or combinations thereof. a tubular body; a male coupling for coupling to another of said sensor modules; a female coupling for receiving a male coupling from another of said sensor modules, the first sensor module, of the below-ground part, comprises a ground humidity sensor; and characterised in that each of the second sensor modules, of the above-ground part, comprises an air humidity sensor, a sensor for sensing air pressure, a sensor for sensing wind speed or for sensing wind speed and direction, a sensor for sensing visible-light solar radiation and UV solar radiation, a sensor for sensing leaf humidity, a sensor for sensing rainfall precipitation, or combinations thereof.
A medical device delivery system comprising: a fixation sheath comprising a fixation element attachable to a right-atrial endocardium in the triangle of Koch region in the right atrium of a patient's heart; a steerable element configured to steer the fixation sheath; a flexible needle at least partially disposable in a lumen of the fixation sheath; and a guide wire at least partially disposable in the lumen of the fixation sheath. a fixation sheath comprising a fixation element attachable to a right-atrial endocardium in the triangle of Koch region in the right atrium of a patient's heart; a steerable element configured to steer the fixation sheath; a flexible needle at least partially disposable in a lumen of the fixation sheath; and a guide wire at least partially disposable in the lumen of the fixation sheath.
A stirring device for wastewater, comprising a drive device having a drive shaft extending vertically therefrom in the assembled state, a stirring body mounted on the drive shaft , and a safety bearing , in which a free end (E) of the drive shaft is rotatably held, characterised in that a slide sleeve is mounted on the free end (E) of the drive shaft , and in that a device for detecting a state of wear of the slide sleeve is provided, wherein the device for detecting the state of wear comprises a sensor , specifically a magnetic field sensor or an induction coil, mounted on the safety bearing and an evaluation device (AW) for evaluating the signals delivered by the sensor , and wherein at least one permanent magnet detectable by means of the sensor is accommodated in the slide sleeve .
A polyethylene, which comprises, as an essential component, one or two or more ethylene polymers selected from the group consisting of a homopolymer of ethylene and a copolymer of ethylene and an α-olefin having 3 to 12 carbon atoms, and has the following characteristics [a], [b], [c], [d], and [e]: [a] a melt flow rate (HLMFR) measured at a temperature of 190°C and a load of 21.6 kg is 1 to 15 g/10 minutes, [b] a density (d) is 0.950 to 0.965 g/cm 3 , [c] a melt tension (MT) measured at 210°C is 147 mN or more, [d] a critical shear rate measured at 190°C using a capillary having a diameter (D) of 5 mm and a ratio (L/D) of a length (L) to the diameter of 2, is 10 sec -1 or more, and [e] a Charpy impact strength measured at -40°C is 9 kJ/m 2 or more, wherein the polyethylene comprises, as an essential component, 5 to 95% by mass of an ethylene polymer (A) having a density (d) of 0.910 to 0.930 g/cm 3 and an HLMFR of 0.1 to 3.0 g/10 minutes and an ethylene polymer (B) having a density (d) of 0.955 to 0.965 g/cm 3 and an HLMFR of 10 to 100 g/10 minutes, wherein the ethylene polymer (B) has a melt tension (MT) of 10 to 200 mN, and wherein, in the ethylene polymer (B), HLMFR (unit: g/10 minutes) and the melt tension (MT) (unit: mN) satisfy a relation represented by the following equation (iii): MT ≥ − 170 × Log 10 HLMFR + 360 wherein the compositional ratio of the ethylene polymer (A) to the ethylene polymer (B) is 95 to 5% by mass of the ethylene polymer (B) relative to 5 to 95% by mass of the ethylene polymer (A). [a] a melt flow rate (HLMFR) measured at a temperature of 190°C and a load of 21.6 kg is 1 to 15 g/10 minutes, [b] a density (d) is 0.950 to 0.965 g/cm 3 , [c] a melt tension (MT) measured at 210°C is 147 mN or more, [d] a critical shear rate measured at 190°C using a capillary having a diameter (D) of 5 mm and a ratio (L/D) of a length (L) to the diameter of 2, is 10 sec -1 or more, and [e] a Charpy impact strength measured at -40°C is 9 kJ/m 2 or more, wherein the polyethylene comprises, as an essential component, 5 to 95% by mass of an ethylene polymer (A) having a density (d) of 0.910 to 0.930 g/cm 3 and an HLMFR of 0.1 to 3.0 g/10 minutes and an ethylene polymer (B) having a density (d) of 0.955 to 0.965 g/cm 3 and an HLMFR of 10 to 100 g/10 minutes, wherein the ethylene polymer (B) has a melt tension (MT) of 10 to 200 mN, and wherein, in the ethylene polymer (B), HLMFR (unit: g/10 minutes) and the melt tension (MT) (unit: mN) satisfy a relation represented by the following equation (iii): MT ≥ − 170 × Log 10 HLMFR + 360 wherein the compositional ratio of the ethylene polymer (A) to the ethylene polymer (B) is 95 to 5% by mass of the ethylene polymer (B) relative to 5 to 95% by mass of the ethylene polymer (A).
Soil screening apparatus comprising a forward soil engaging element for engaging soil beneath a surface thereof, and for directing soil onto an elevating conveying means in response to the apparatus being moved in a forward direction, a first screening means configured to receive soil from the conveying means and configured to prevent material of a first predefined size and greater passing therethrough, and to pass material of size less than the first predefined size therethrough, and a second screening means configured to receive the material of size less than the first predefined size from the first screening means , the second screening means being configured to prevent material of a second predefined size and greater passing therethrough, and to pass material of size less than the second predefined size therethrough to the ground, the first predefined size of the material being greater than the second predefined size of the material, characterised in that the second screening means is further configured to discharge the material of the second predefined size and greater to the ground forward of the location at which the material of size less than the second predefined size is deposited on the ground from the second screening means , so that the material of size less than the second predefined size is deposited on top of the material of the second predefined size and greater as the apparatus is being urged forwardly.
Portable satellite antenna including a main body , capable of containing electronics for adapting the same antenna and means of connection to a SATCOM transceiver, and a plurality of radiating elements fastened at one end of said main body , with the latter configured to act as a handle, said radiating elements extending radially from said main body in an operating condition (W) and foldable so as to adhere to the same main body in the condition of non-use (H) of said satellite antenna , wherein - said radiating elements have a straight-shaped configuration; they are made of flexible shape memory material; they have a stable radially extended position when arranged in an operational configuration (W); and they are foldable, by virtue of the mechanical flexibility of said shape memory material, so as to adhere to the same main body in the condition of non-use (H) of said satellite antenna ; - means of stabilisation are provided, associated, either fixed or removable, with the said radiating elements for their definition and maintenance in said folded position (R) adhering to said main body , and with said radiating elements intended to return spontaneously to said radial configuration (X), corresponding to the said operating condition (W) of said satellite antenna , as a result of the removal/opening of said means of stabilisation . - said radiating elements have a straight-shaped configuration; they are made of flexible shape memory material; they have a stable radially extended position when arranged in an operational configuration (W); and they are foldable, by virtue of the mechanical flexibility of said shape memory material, so as to adhere to the same main body in the condition of non-use (H) of said satellite antenna ; - means of stabilisation are provided, associated, either fixed or removable, with the said radiating elements for their definition and maintenance in said folded position (R) adhering to said main body , and with said radiating elements intended to return spontaneously to said radial configuration (X), corresponding to the said operating condition (W) of said satellite antenna , as a result of the removal/opening of said means of stabilisation .
A method for producing a unit dose capsule including at least one solid or semi-solid component, comprising: forming a first film into the shape of a first cavity; providing a first component under a first condition that makes it fluid and/or flowable; dispensing the first component onto the first film or into the first cavity under a second condition such that the first component transforms to a solid or semi-solid state and forms a layer of component one adhered to and/or in contact with the first film after dispensing; forming a second film into the shape of a second cavity; filling the second cavity with a second component; and sealing the first and second films to form a sealed chamber comprising at least one chamber containing the first and the second component. forming a first film into the shape of a first cavity; providing a first component under a first condition that makes it fluid and/or flowable; dispensing the first component onto the first film or into the first cavity under a second condition such that the first component transforms to a solid or semi-solid state and forms a layer of component one adhered to and/or in contact with the first film after dispensing; forming a second film into the shape of a second cavity; filling the second cavity with a second component; and sealing the first and second films to form a sealed chamber comprising at least one chamber containing the first and the second component.