mhurhangee/patent-ind-claim-en huggingface dataset:
A curable composition comprising, based on the total weight of the curable composition, components: a) 1 to 65 percent by weight of polyepoxide comprising an addition reaction product of phenolphthalein and bisphenol A diglycidyl ether, wherein the addition reaction product of phenolphthalein and bisphenol A diglycidyl ether comprises a compound having the structural formula and b) 5 to 50 percent by weight of liquid polyepoxide, wherein the liquid polyepoxide is a polyeopoxide that is liquid at 20°C and the liquid polyepoxide is exclusive of component a); and c) an effective amount of curative for curing the curable composition. a) 1 to 65 percent by weight of polyepoxide comprising an addition reaction product of phenolphthalein and bisphenol A diglycidyl ether, wherein the addition reaction product of phenolphthalein and bisphenol A diglycidyl ether comprises a compound having the structural formula and b) 5 to 50 percent by weight of liquid polyepoxide, wherein the liquid polyepoxide is a polyeopoxide that is liquid at 20°C and the liquid polyepoxide is exclusive of component a); and c) an effective amount of curative for curing the curable composition.
Rail vehicle comprising: - a car body having a door opening ; - a sliding door which is movable between a closed and an opened position, wherein the sliding door in the closed position closes the door opening and in the opened position opens the door opening ; - a movable floor part which is disposed on a floor of the rail vehicle , or is connected to the floor , and extends longitudinally in relation to the door opening and is movable between a retracted and a deployed position, wherein the movable floor part in the deployed position protrudes through the door opening and outwards at least partially beyond the car body ; - and wherein the movable floor part is mechanically coupled to the sliding door such that, in the movement of the sliding door from the closed to the opened position, the movable floor part is moved from the retracted to the deployed position, and in the movement of the sliding door from the opened to the closed position, the movable floor part is moved from the deployed to the retracted position; characterized in that - the sliding door is a folding-sliding door ; - wherein the movable floor part in the deployed position protrudes beyond the door opening into a void which is created when the folding-sliding door is pivoted outwards. - a car body having a door opening ; - a sliding door which is movable between a closed and an opened position, wherein the sliding door in the closed position closes the door opening and in the opened position opens the door opening ; - a movable floor part which is disposed on a floor of the rail vehicle , or is connected to the floor , and extends longitudinally in relation to the door opening and is movable between a retracted and a deployed position, wherein the movable floor part in the deployed position protrudes through the door opening and outwards at least partially beyond the car body ; - and wherein the movable floor part is mechanically coupled to the sliding door such that, in the movement of the sliding door from the closed to the opened position, the movable floor part is moved from the retracted to the deployed position, and in the movement of the sliding door from the opened to the closed position, the movable floor part is moved from the deployed to the retracted position; - the sliding door is a folding-sliding door ; - wherein the movable floor part in the deployed position protrudes beyond the door opening into a void which is created when the folding-sliding door is pivoted outwards.
An antenna integrated display screen comprising a conductive mesh layer , wherein the antenna is formed by at least part of a pattern of the conductive mesh layer , and wherein the antenna comprises a millimeter-wave (mm-wave) antenna ; wherein the mm-wave antenna comprises a plurality of mm-wave antenna elements , each of the plurality of mm-wave antenna elements comprising a radiation portion; wherein the respective radiation portions of at least two of the mm-wave antenna elements are connected to each other through a conductive structure to form a connection structure, the conductive structure being configured to transmit non-mm-wave energy and to block mm-wave energy; and wherein the connection structure is configured to be multiplexed to form at least a radiation portion of a first part of a non-mm-wave antenna . wherein the mm-wave antenna comprises a plurality of mm-wave antenna elements , each of the plurality of mm-wave antenna elements comprising a radiation portion; wherein the respective radiation portions of at least two of the mm-wave antenna elements are connected to each other through a conductive structure to form a connection structure, the conductive structure being configured to transmit non-mm-wave energy and to block mm-wave energy; and wherein the connection structure is configured to be multiplexed to form at least a radiation portion of a first part of a non-mm-wave antenna .
A communication method, applied to an unlicensed spectrum system, the method comprising: receiving (S310), by an access network device from a core network device, a first group identifier of a first terminal group and an identifier of a terminal comprised in the first terminal group; receiving, by the access network device, a second group identifier from the core network device; or allocating, by the access network device, the second group identifier to the first terminal group; characterized by sending (S320), by the access network device, the first group identifier and the second group identifier of the first terminal group to the first terminal group; wherein the first group identifier and the second group identifier are used to indicate a paging occasion for the first terminal group, and a paging message for the first terminal group is transmitted in multicast mode, by the access network device, on a first physical channel associated with the first terminal group. receiving (S310), by an access network device from a core network device, a first group identifier of a first terminal group and an identifier of a terminal comprised in the first terminal group; receiving, by the access network device, a second group identifier from the core network device; or allocating, by the access network device, the second group identifier to the first terminal group; characterized by sending (S320), by the access network device, the first group identifier and the second group identifier of the first terminal group to the first terminal group; wherein the first group identifier and the second group identifier are used to indicate a paging occasion for the first terminal group, and a paging message for the first terminal group is transmitted in multicast mode, by the access network device, on a first physical channel associated with the first terminal group.
A microwave ablation catheter assembly comprising: an ablation catheter including: a coaxial cable having a proximal portion and a distal portion, the proximal portion capable of being operatively connected to a microwave energy source, the coaxial cable including an inner conductor and an outer conductor; and a radiator disposed at the distal portion of the coaxial cable; and a flexible extended working channel configured to receive the ablation catheter for positioning the radiator adjacent target tissue, the extended working channel having an outer insulating layer and a braided electrically conductive inner surface that extends along the entire length of the extended working channel, wherein, upon application of microwave energy to the microwave ablation catheter assembly, energy conducted along the outer conductor of the coaxial cable is captured within the conductive inner surface of the extended working channel and prevented from affecting tissue adjacent the extended working channel. an ablation catheter including: a coaxial cable having a proximal portion and a distal portion, the proximal portion capable of being operatively connected to a microwave energy source, the coaxial cable including an inner conductor and an outer conductor; and a radiator disposed at the distal portion of the coaxial cable; and a coaxial cable having a proximal portion and a distal portion, the proximal portion capable of being operatively connected to a microwave energy source, the coaxial cable including an inner conductor and an outer conductor; and a radiator disposed at the distal portion of the coaxial cable; and a flexible extended working channel configured to receive the ablation catheter for positioning the radiator adjacent target tissue, the extended working channel having an outer insulating layer and a braided electrically conductive inner surface that extends along the entire length of the extended working channel, wherein, upon application of microwave energy to the microwave ablation catheter assembly, energy conducted along the outer conductor of the coaxial cable is captured within the conductive inner surface of the extended working channel and prevented from affecting tissue adjacent the extended working channel.
A water/glycol-based hydraulic fluid that includes water at between 20 and 60 mass %, a fatty acid and a dimer acid, wherein the total amount of fatty acid and dimer acid is more than 0.4 mass % and no more than 1.2 mass % as a fatty acid lubricant, and also a phosphate ester represented by the following general formula : where R 1 and R 2 each represent a hydrogen atom or a hydrocarbon group with a carbon number between 1 and 30, and may either be mutually identical or mutually different; R 3 is -CH(CH3)- or -CH2-CH2-; R 4 represents a hydrogen atom or a hydrocarbon group with a carbon number between 1 and 30; and wherein X 1 and X 2 of the phosphate ester are oxygen atoms and X 3 and X 4 are sulfur atoms.
Mold assembly used in the plastic injection pet preform production industry, comprising - the jaw , which is located on the injection mold to form the mouth of the PET preform, including circular bulge , on its lower surface, extending upwards and downwards in accordance with the mouth structure of the PET preform, it further includes jaw channel in the form of an inward recess around the outer edge of the bulges , characterized by , - the first conical jaw ring located in the jaw channel on one side of the jaw and whose outer surface is conical form, - The second conical jaw ring located inside the jaw channel on the other side of the jaw and whose outer surface is conical form, - The cavity , which is locked to the side of the jaw wherein the first conical jaw ring is on said side, by means of the connected cavity ring on the cavity channel located on its upper surface and forming the outer wall of the PET preform, - The locking ring , which is locked to the side of the jaw wherein the second conical jaw ring is on said side, by means of the core ring connected to the locking channel located on its upper surface, - The core that is connected on the locking ring and forms the inner wall of the PET preform. - the jaw , which is located on the injection mold to form the mouth of the PET preform, including circular bulge , on its lower surface, extending upwards and downwards in accordance with the mouth structure of the PET preform, it further includes jaw channel in the form of an inward recess around the outer edge of the bulges , characterized by , - the first conical jaw ring located in the jaw channel on one side of the jaw and whose outer surface is conical form, - The second conical jaw ring located inside the jaw channel on the other side of the jaw and whose outer surface is conical form, - The cavity , which is locked to the side of the jaw wherein the first conical jaw ring is on said side, by means of the connected cavity ring on the cavity channel located on its upper surface and forming the outer wall of the PET preform, - The locking ring , which is locked to the side of the jaw wherein the second conical jaw ring is on said side, by means of the core ring connected to the locking channel located on its upper surface, - The core that is connected on the locking ring and forms the inner wall of the PET preform.
A strap tie comprising: a body including a receiving channel and a strap engagement member, the receiving channel extending through the body, the receiving channel configured to receive a remote strap , the strap engagement member configured to engage a movement restriction member of the remote strap to prevent translation of the remote strap away from the body; a strap extending from the body , the strap including a proximal end attached to the body, a distal end opposite the proximal end, and a plurality of movement restriction members ; and characterised in that the body comprises a rotational element configured to removably couple to a base to allow the strap tie to rotate relative to the base wherein: the rotational element defines a slot extending into the rotational element; and the body includes a first base engagement member between a first body surface portion from which the strap extends and a second body surface portion , the first base engagement member including an actuator component coupled to an engagement component , the engagement component configured to be at least partially received in the slot, the actuator component configured to be moved from a first position at which the engagement component extends a first distance away from the slot to a second position at which the engagement component extends a second distance less than the first distance away from the slot. a body including a receiving channel and a strap engagement member, the receiving channel extending through the body, the receiving channel configured to receive a remote strap , the strap engagement member configured to engage a movement restriction member of the remote strap to prevent translation of the remote strap away from the body; a strap extending from the body , the strap including a proximal end attached to the body, a distal end opposite the proximal end, and a plurality of movement restriction members ; and characterised in that the body comprises a rotational element configured to removably couple to a base to allow the strap tie to rotate relative to the base wherein: the rotational element defines a slot extending into the rotational element; and the body includes a first base engagement member between a first body surface portion from which the strap extends and a second body surface portion , the first base engagement member including an actuator component coupled to an engagement component , the engagement component configured to be at least partially received in the slot, the actuator component configured to be moved from a first position at which the engagement component extends a first distance away from the slot to a second position at which the engagement component extends a second distance less than the first distance away from the slot.
Process for preparing a fluid for the decontamination of heat engines, especially diesel engines, enabling not only selective catalytic reduction of the nitrogen oxides present in the exhaust gases but also assistance in the regeneration of the particle filter by catalytic combustion of the soot particles deposited in the particle filter, consisting of a clear and homogeneous solution of at least one metal ion complexed in a 32.5% by mass solution of urea in pure water, wherein a metal complex is added to said 32.5% by mass solution of urea in pure water, and wherein the metal ion is iron and is introduced in the form of soluble organic salts selected from formats, citrates, fumarates, succinates and nitrilotriacetates at a metal ion concentration, in ionic or complexed form, in said 32.5% by mass solution of urea in pure water of between 10 and 10 000 ppm, preferably between 10 and 5000 ppm.
Drill string element for installing in a drill string, for the creation of a drill hole along a drill path, in particular for laying a pipeline, comprising a tubular main body having bilateral connecting elements for connecting the drill string element to the drill string, wherein the drill string element has an interior through which a flushing medium for the flushing of the drill hole and the evacuation of drill cuttings loosened by a drill head connected to the drill string is transportable, comprising at least one opening , connected to the interior , in a wall of the main body , through which at least a part of the flushing medium flowing through the interior makes its way into an annular space between drill hole wall and main body , wherein on the outer wall , over the opening , is arranged at least one body , in which is disposed, at least in part, a flow channel , in that the flow channel has at least one flow path and is fluidically connected to the opening via an inlet opening , in that the flow channel , on its side facing away from the opening , has at least one outlet opening , and in that the clear cross section of the opening and/or inlet opening is smaller or larger than the clear cross section of the outlet opening , wherein the outlet opening is arranged substantially axially to the center axis of the drill string element , characterized in that the drill string is a drill string for horizontal directional drilling (HDD), in that the drill path extends substantially horizontally from a start point to a destination point, in that the clear cross section of the opening or the inlet opening and the outlet opening is adjustable, in that the adjustment is carried out in that , in at least two of the opening , the inlet opening , within the flow channel , and/or in the outlet opening , is arranged in each case at least one nozzle and/or orifice plate, wherein the at least two nozzles and/or orifice plates are designed to be changeable, and in that the nozzle and/or orifice plate are/is selected such that, at the installation point of the drill string element in the drill string in the drill hole, the flushing medium can be delivered into the annular space with respectively predefined volumetric flow and/or pressure, wherein the volumetric flow and/or pressure in the annular space is fixed in dependence on the geological nature of the in-situ rock, and in that the at least one body extends on the main body , so that the outside radius of the main body is enlarged in some sections and an eccentric is present, by which the drill string can be periodically raised from the drill hole wall in the course of the drilling.
A non-metallic security enclosure including: a body ; a cover which is connected to the body using connecting means such that the cover is movable between a first, closed position wherein the security enclosure is closed and a second, open position wherein the security enclosure is open; locking means for locking the cover in its closed position; complementary shaped engagement formations carried by the body and cover that engage one another along at least a major portion of the periphery of the body and cover to create a mechanical seal between the body and cover when the cover is in its closed position; characterised in that the enclosure includes retaining formations carried by the body and cover respectively, the retaining formations defining a locking interface between the cover and body to prevent the cover from being removed from the body when the cover is in its closed position unless the locking means is either unlocked or compromised, thereby securing the cover to the body even if the connecting means have been compromised; and in that the cover has an obstructing formation that defines the retaining formation carried by the cover ; and in that the obstructing formation extends beyond the locking interface between the body and cover , thereby concealing, at least partially, the connecting means connecting the body and cover to one another. a body ; a cover which is connected to the body using connecting means such that the cover is movable between a first, closed position wherein the security enclosure is closed and a second, open position wherein the security enclosure is open; locking means for locking the cover in its closed position; complementary shaped engagement formations carried by the body and cover that engage one another along at least a major portion of the periphery of the body and cover to create a mechanical seal between the body and cover when the cover is in its closed position; characterised in that the enclosure includes retaining formations carried by the body and cover respectively, the retaining formations defining a locking interface between the cover and body to prevent the cover from being removed from the body when the cover is in its closed position unless the locking means is either unlocked or compromised, thereby securing the cover to the body even if the connecting means have been compromised; and in that the cover has an obstructing formation that defines the retaining formation carried by the cover ; and in that the obstructing formation extends beyond the locking interface between the body and cover , thereby concealing, at least partially, the connecting means connecting the body and cover to one another.
A mass spectrometer for performing mass spectrometry, comprising: a) an ion reactor configured to irradiate ions originating from a component in a sample with radical species of a predetermined molecule to induce a reaction between the ions and the radical species, wherein the radical species of the predetermined molecule includes at least one kind of radical species selected from hydrogen radical, hydroxyl radical, and oxygen radical, wherein irradiation with hydrogen radicals induces a reaction of hydrogen extraction, and wherein irradiation with hydroxyl radicals or oxygen radicals induces a reaction of hydrogen extraction or oxygen attachment; b) a precursor ion isolator configured to selectively isolate a specific ion which has turned into a radical ion by said reaction as a precursor ion, so that product ions generated due to dissociation by irradiation of the ions with the radical species are removed; c) an ion dissociator configured to dissociate the precursor ion isolated by the precursor ion isolator to generate product ions; and d) a separating-detecting section configured to separate the product ions generated by the ion dissociator from each other according to their mass-to-charge ratios, and configured to detect the separated product ions. a) an ion reactor configured to irradiate ions originating from a component in a sample with radical species of a predetermined molecule to induce a reaction between the ions and the radical species, wherein the radical species of the predetermined molecule includes at least one kind of radical species selected from hydrogen radical, hydroxyl radical, and oxygen radical, wherein irradiation with hydrogen radicals induces a reaction of hydrogen extraction, and wherein irradiation with hydroxyl radicals or oxygen radicals induces a reaction of hydrogen extraction or oxygen attachment; b) a precursor ion isolator configured to selectively isolate a specific ion which has turned into a radical ion by said reaction as a precursor ion, so that product ions generated due to dissociation by irradiation of the ions with the radical species are removed; c) an ion dissociator configured to dissociate the precursor ion isolated by the precursor ion isolator to generate product ions; and d) a separating-detecting section configured to separate the product ions generated by the ion dissociator from each other according to their mass-to-charge ratios, and configured to detect the separated product ions.