mhurhangee/patent-ind-claim-en huggingface dataset:
Side covering of a commercial vehicle structure, consisting of a side tarpaulin , which is suspended level with the roof construction of the vehicle structure and can be pushed together in the longitudinal direction of the vehicle, and of at least one stanchion , which is arranged on the inner side of the side tarpaulin , is displaceable together therewith in the longitudinal direction of the vehicle and has a single- or multi-part main stanchion body which is elongated vertically and, at its upper end, is provided with a roller apparatus for guiding the stanchion along the roof construction and, at its lower end, can be locked against a stanchion holder which is mounted on the vehicle, wherein part of the stanchion is a clamping lever which is formed so as to be pivotable towards the main stanchion body , characterized in that the lower end of the clamping lever - is guided longitudinally on a guide on the main stanchion body - and is connected to the side tarpaulin in the region of the lower edge thereof, in that the stanchion is provided with a lever arrangement for releasably locking the stanchion to the stanchion holder , and in that part of the lever arrangement is a toggle lever which can be supported in relation to the stanchion holder and is formed so as to pivotable towards the main stanchion body in order to lock the stanchion . - is guided longitudinally on a guide on the main stanchion body - and is connected to the side tarpaulin in the region of the lower edge thereof,
A vehicle drive assembly with transverse dual-power-source, connected to a vehicle axle half shaft, wherein the vehicle drive assembly comprises a first power source, a second power source and an automatic transmission , the automatic transmission is provided with a first input shaft and a second input shaft , the power sources are respectively connected to the two input shafts, and a differential is provided at a connection between the automatic transmission and the vehicle axle half shaft; in the automatic transmission , a first intermediate shaft is provided parallel to the first input shaft , a second intermediate shaft is provided coaxial with the first input shaft , a third intermediate shaft is provided coaxial with the first intermediate shaft , a first clutch is provided between the first intermediate shaft and the third intermediate shaft ; the first input shaft is provided with a first gear , the first intermediate shaft is provided with a second gear , and the first gear and the second gear are in engaged transmission; and the second input shaft is provided with a third gear , the second intermediate shaft is provided with a fourth gear , and the third gear and the fourth gear are in engaged transmission; and the second intermediate shaft is further provided with a fifth gear , the third intermediate shaft is provided with a sixth gear , the differential is provided with a seventh gear , characterized in that a second clutch is provided between the first input shaft and the second intermediate shaft ; and the fifth gear and the sixth gear are in engaged transmission, and the sixth gear is simultaneously in engaged transmission with the seventh gear .
Process for selecting one or more heat sources from a quantity of heat sources for heating the air in a passenger compartment of a motor vehicle , wherein in a heat system state, the following steps are carried out: - Automatic selection of one or more heat sources to be activated, if it is established that there is a requirement for heat; and - activating the selected one or more heat sources , wherein the heat source is selected independently of a heat requirement, wherein the heat requirement produced from the temperature difference between a desired temperature and an actual temperature is characterised in that : the heat requirement is determined regardless of which additional weather-conditioned heat energy input occurs in the course of the ongoing trip. - Automatic selection of one or more heat sources to be activated, if it is established that there is a requirement for heat; and - activating the selected one or more heat sources , the heat requirement is determined regardless of which additional weather-conditioned heat energy input occurs in the course of the ongoing trip.
A flux comprising: a rosin methyl ester, an unesterified rosin, and, an activator which includes an organic halogen compound activator wherein a content of the rosin methyl ester is 0.5% to 20% by mass with respect to a total mass of the flux, a content of the unesterified rosin is 40% to 98.9% by mass with respect to the total mass of the flux, and the flux is a solid or solid-like flux at 25°C wherein a viscosity η 1 at 25°C is 3,200 Pa·s or more which is measured 5 minutes after a start of rotation at 6 Hz using a rheometer, and is suitable for use as an inside of a flux-cored solder or an exterior of a flux-coated solder. a rosin methyl ester, an unesterified rosin, and, an activator which includes an organic halogen compound activator wherein a content of the rosin methyl ester is 0.5% to 20% by mass with respect to a total mass of the flux, a content of the unesterified rosin is 40% to 98.9% by mass with respect to the total mass of the flux, and the flux is a solid or solid-like flux at 25°C wherein a viscosity η 1 at 25°C is 3,200 Pa·s or more which is measured 5 minutes after a start of rotation at 6 Hz using a rheometer, and is suitable for use as an inside of a flux-cored solder or an exterior of a flux-coated solder.
High strength steel strip consisting of the following elements, in wt.%: C 0.12-0.18 Mn 2.00 - 2.60 Si 0.30 - 0.77 Cr 0.10 - 0.70 Al < 0.39 S < 0.005 N < 0.015 P < 0.03 and optionally one or more of the elements selected from: Nb < 0.06 Mo < 0.20 Ti < 0.04 V < 0.20 B < 0.004 Ca < 0.004 the remainder being iron and unavoidable impurities, wherein the steel strip has a microstructure consisting of, in vol.%: ferrite and bainite together 50 - 90 martensite < 15 retained austenite 5 - 15, the remainder being pearlite, cementite, precipitates and inclusions together up to 5, the sum adding up to 100 vol. %. and optionally one or more of the elements selected from: Nb < 0.06 Mo < 0.20 Ti < 0.04 V < 0.20 B < 0.004 Ca < 0.004 the remainder being iron and unavoidable impurities, wherein the steel strip has a microstructure consisting of, in vol.%: ferrite and bainite together 50 - 90 martensite < 15 retained austenite 5 - 15, the remainder being pearlite, cementite, precipitates and inclusions together up to 5, the sum adding up to 100 vol. %. ferrite and bainite together 50 - 90 martensite < 15 retained austenite 5 - 15, the remainder being pearlite, cementite, precipitates and inclusions together up to 5, the sum adding up to 100 vol. %.
A semiconductor structure with an air gap, comprising: a substrate ; a dielectric stack comprising a first dielectric layer disposed on the substrate , a second dielectric layer disposed on the first dielectric layer , and a third dielectric layer disposed on the second dielectric layer ; a first conductive layer disposed in the dielectric stack; a second conductive layer disposed in the dielectric stack and spaced apart from the first conductive layer, wherein the first conductive layer and the second conductive layer are coplanar; a cross-like-shaped air gap disposed in the dielectric stack between the first conductive layer and the second conductive layer; an oxide layer disposed on a sidewall of the second dielectric layer within the cross-like-shaped air gap; wherein the cross-like-shaped air gap has a widened middle portion in the second dielectric layer , a tapered upper portion in the third dielectric layer , and a tapered lower portion in the first dielectric layer ; and wherein the third dielectric layer comprises an extension portion that extends into the cross-like-shaped air gap and conformally covers a sidewall of the first dielectric layer adjacent to the tapered lower portion of the cross-like-shaped air gap and a sidewall of the second dielectric layer adjacent to the widened middle portion of the cross-like-shaped air gap. a substrate ; a dielectric stack comprising a first dielectric layer disposed on the substrate , a second dielectric layer disposed on the first dielectric layer , and a third dielectric layer disposed on the second dielectric layer ; a first conductive layer disposed in the dielectric stack; a second conductive layer disposed in the dielectric stack and spaced apart from the first conductive layer, wherein the first conductive layer and the second conductive layer are coplanar; a cross-like-shaped air gap disposed in the dielectric stack between the first conductive layer and the second conductive layer; an oxide layer disposed on a sidewall of the second dielectric layer within the cross-like-shaped air gap; wherein the cross-like-shaped air gap has a widened middle portion in the second dielectric layer , a tapered upper portion in the third dielectric layer , and a tapered lower portion in the first dielectric layer ; and wherein the third dielectric layer comprises an extension portion that extends into the cross-like-shaped air gap and conformally covers a sidewall of the first dielectric layer adjacent to the tapered lower portion of the cross-like-shaped air gap and a sidewall of the second dielectric layer adjacent to the widened middle portion of the cross-like-shaped air gap.
An inductive heater comprising: a ferrite base defining a peripheral sidewall , a central core , a bottom wall, and a cavity disposed between the peripheral sidewall and the central core and defined by the peripheral sidewall , the central core and the bottom wall, the ferrite base being formed of a ferrite oxide having a transition metal element; and magnetic wire disposed within the cavity and wound around the central core to form an induction coil ; wherein the inductive heater comprises a non-metallic cover plate disposed on top of the ferrite base and a ferromagnetic bottom plate disposed on a top surface of the non-metallic cover plate and being formed of a material having a higher loss property than that of ferrite base , wherein the induction coil is selectively energized to produce magnetic flux, which is constrained in a continuous path through the peripheral sidewall , the bottom wall, and the core of the ferrite base and the ferromagnetic bottom plate and alternating magnetic polarizations that generate heat due to the higher loss property of the ferromagnetic bottom plate , characterised by the heat being conductively transferred to a heating target disposed above the ferromagnetic bottom plate , the ferromagnetic bottom plate remaining cool during heating of the heating target and being removable relative to the non-metallic cover plate after the heating target is heated. a ferrite base defining a peripheral sidewall , a central core , a bottom wall, and a cavity disposed between the peripheral sidewall and the central core and defined by the peripheral sidewall , the central core and the bottom wall, the ferrite base being formed of a ferrite oxide having a transition metal element; and magnetic wire disposed within the cavity and wound around the central core to form an induction coil ; wherein the inductive heater comprises a non-metallic cover plate disposed on top of the ferrite base and a ferromagnetic bottom plate disposed on a top surface of the non-metallic cover plate and being formed of a material having a higher loss property than that of ferrite base ,
A method for decoding a current picture from an encoded HEVC video bitstream using a reference picture set, comprising: receiving the encoded bitstream; decoding first information in a slice header of the encoded video bitstream, wherein the first information is a value of the least significant bits, LSB, of a picture order count, POC, of a reference picture in the reference picture set; after decoding the first information, determining third information which is used to determine whether second information is included in the encoded video bitstream, wherein the second information is a value of the most significant bits, MSB, of the POC of the reference picture in the reference picture set; if the second information is included in the encoded video bitstream, decoding the second information included in the slice header of the encoded video bitstream after the first information; decoding the reference picture set using at least the first information and the third information; decoding the current picture to generate a current decoded picture by using inter prediction based on the reference picture set; and storing the current decoded picture to be referred for further inter prediction. receiving the encoded bitstream; decoding first information in a slice header of the encoded video bitstream, wherein the first information is a value of the least significant bits, LSB, of a picture order count, POC, of a reference picture in the reference picture set; after decoding the first information, determining third information which is used to determine whether second information is included in the encoded video bitstream, wherein the second information is a value of the most significant bits, MSB, of the POC of the reference picture in the reference picture set; if the second information is included in the encoded video bitstream, decoding the second information included in the slice header of the encoded video bitstream after the first information; decoding the reference picture set using at least the first information and the third information; decoding the current picture to generate a current decoded picture by using inter prediction based on the reference picture set; and storing the current decoded picture to be referred for further inter prediction.
An optical element comprising: a first surface for emitting and/or receiving electromagnetic radiation, the first surface being arranged for optically coupling to, or being optically coupled to, a portion of an optical fibre , the optical fibre having an axis; and a second surface positioned for emitting and/or receiving electromagnetic radiation in a direction transversal to the axis of the optical fibre ; wherein the optical element has a first focal length for electromagnetic radiation emitted and/or received by an inner portion of the second surface and a second focal length for electromagnetic radiation emitted and/or received by an outer portion of the second surface , the first and second focal lengths being different focal lengths; wherein the inner portion and the outer portion of the second surface are optimised for use of the optical element to acquire measurements at different acquisition parameters using one or more optical technologies; and characterised in that the first focal length is larger than the second focal length, and in that a depth of field associated with the inner portion of the second surface is larger than a depth of field associated with the outer portion of the second surface . a first surface for emitting and/or receiving electromagnetic radiation, the first surface being arranged for optically coupling to, or being optically coupled to, a portion of an optical fibre , the optical fibre having an axis; and a second surface positioned for emitting and/or receiving electromagnetic radiation in a direction transversal to the axis of the optical fibre ; wherein the optical element has a first focal length for electromagnetic radiation emitted and/or received by an inner portion of the second surface and a second focal length for electromagnetic radiation emitted and/or received by an outer portion of the second surface , the first and second focal lengths being different focal lengths; wherein the inner portion and the outer portion of the second surface are optimised for use of the optical element to acquire measurements at different acquisition parameters using one or more optical technologies; and characterised in that the first focal length is larger than the second focal length, and in that a depth of field associated with the inner portion of the second surface is larger than a depth of field associated with the outer portion of the second surface .
A method of inspecting and performing material identification of a contaminant found in a vial containing a cake of lyophilized medicine, the vial having a neck with reduced diameter, the method comprising: identifying the presence of a contaminant in the lyophilized medicine; detaching a portion of the vial to create an enlarged opening in the vial; removing substantially an entire cake of lyophilized medicine through the enlarged opening; and analyzing the contaminant using an atomic emissions spectroscopy (AES) technique. identifying the presence of a contaminant in the lyophilized medicine; detaching a portion of the vial to create an enlarged opening in the vial; removing substantially an entire cake of lyophilized medicine through the enlarged opening; and analyzing the contaminant using an atomic emissions spectroscopy (AES) technique.
An initiator for a gas generator of a vehicle safety device, the initiator comprising: a cup defining an interior; a primary pyrotechnic material disposed in the interior of the cup ; a secondary pyrotechnic material disposed in the interior of the cup ; a separator member hermetically separating the primary pyrotechnic material from the secondary pyrotechnic material ; and an ignition device including a pair of electrical connectors or pins and a bridge wire ; a static cover covering the cup ; an overmolded member attaching the static cover and the ignition device ; wherein the initiator is further comprising an adaptor at least partially disposed in the interior of the cup , the adaptor holding the primary pyrotechnic material and being distinct from the ignition device , the separator member being connected to the cup through the adaptor . a cup defining an interior; a primary pyrotechnic material disposed in the interior of the cup ; a secondary pyrotechnic material disposed in the interior of the cup ; a separator member hermetically separating the primary pyrotechnic material from the secondary pyrotechnic material ; and an ignition device including a pair of electrical connectors or pins and a bridge wire ; a static cover covering the cup ; an overmolded member attaching the static cover and the ignition device ; wherein the initiator is further comprising an adaptor at least partially disposed in the interior of the cup , the adaptor holding the primary pyrotechnic material and being distinct from the ignition device , the separator member being connected to the cup through the adaptor .
A 5G communication system , comprising: at least one visited network slice comprising a visited network access entity ; a home network slice comprising a home Access and Mobility Management Function, AMF, entity ; and a router entity coupled between the visited network access entity and the home AMF entity , wherein the router entity is configured to route a registration request message of a roaming user equipment, UE, received from the visited network access entity to the home AMF entity , wherein the router entity is a central entity located at a central location of the 5G communication system outside the at least one visited network slice and the home network slice , wherein the visited network access entity comprises a routing table which comprises at least one internal route for routing messages from non-roaming UEs that are configured for the at least one visited network slice and an external route for routing messages from roaming UEs that are not configured for the at least one visited network slice . at least one visited network slice comprising a visited network access entity ; a home network slice comprising a home Access and Mobility Management Function, AMF, entity ; and a router entity coupled between the visited network access entity and the home AMF entity , wherein the router entity is configured to route a registration request message of a roaming user equipment, UE, received from the visited network access entity to the home AMF entity , wherein the router entity is a central entity located at a central location of the 5G communication system outside the at least one visited network slice and the home network slice , wherein the visited network access entity comprises a routing table which comprises at least one internal route for routing messages from non-roaming UEs that are configured for the at least one visited network slice and an external route for routing messages from roaming UEs that are not configured for the at least one visited network slice .
A negative electrode active material comprising a core, an intermediate layer and a shell layer, wherein the core includes a silicon oxide of SiO x (0 < x < 2); the intermediate layer is a lithium silicate-containing layer disposed on the surface of the silicon oxide; the shell layer is a LiF coating layer disposed on the surface of the lithium silicate-containing layer; and the lithium silicate-containing layer is present in an amount of 5-15 wt% based on the total weight of the negative electrode active material. wherein the core includes a silicon oxide of SiO x (0 < x < 2); the intermediate layer is a lithium silicate-containing layer disposed on the surface of the silicon oxide; the shell layer is a LiF coating layer disposed on the surface of the lithium silicate-containing layer; and the lithium silicate-containing layer is present in an amount of 5-15 wt% based on the total weight of the negative electrode active material.
A cutting tool for the machining of wood or a wood-based material, in particular a wood composite material, or a plastic, wherein a layer system for the formation of a surface coating is present on a surface of a cutting edge of the cutting tool, characterised in that an outermost surface layer of the layer system is formed from a composition of the form [Cr 1-x O x ] z X a C b N c with 0.05 < x < 0.75 and 0 < z ≤ 1, 0 ≤ a <1, 0 ≤ b <1, 0 ≤ c < 1 and z+a+b+c = 1 and X being an element from the group of the chemical elements consisting of Si, B, Al, Mn, Fe, Co, Ni, Cu, Sc, Y, La, Th, the elements of the group of the lanthanides and the elements of the group 11a of the periodic system of the elements.