mhurhangee/patent-ind-claim-en huggingface dataset:
Interior materials for being attached to an outer surface of a plastic injection mold and exposing, to outside, light selectively emitted from a light source arranged in the plastic injection mold, the interior materials comprising: a wood pattern layer formed of natural wood and having a plurality of first lighting holes through which the light selectively emitted from the light source passes, characterized by further comprising: a light block layer coupled to a rear surface of the wood pattern layer , blocking light, and having a plurality of second lighting holes formed therein respectively corresponding to the plurality of first lighting holes; and a touch sensor electrode coupled to a rear surface of the light block layer and controlling an operation of a preset function by a touch, and having a plurality of third lighting holes formed therein respectively corresponding to the plurality of the second lighting holes. a light block layer coupled to a rear surface of the wood pattern layer , blocking light, and having a plurality of second lighting holes formed therein respectively corresponding to the plurality of first lighting holes; and a touch sensor electrode coupled to a rear surface of the light block layer and controlling an operation of a preset function by a touch, and having a plurality of third lighting holes formed therein respectively corresponding to the plurality of the second lighting holes.
A pharmaceutical composition for use in the prevention or treatment of chronic obstructive pulmonary disease comprising an extract of Magnoliae flos or a fraction or an active fraction obtained by fractionation thereof with an organic solvent as an active ingredient, wherein the extract of Magnoliae flos was extracted using an extraction solvent of methanol, wherein the active ingredient comprises the compounds represented by Formulae 2-8, a stereoisomer thereof, or a pharmaceutically acceptable salt thereof: and
Wearable bag to be worn on one side of the body of a person , comprising: - a main body having a first peripheral side ; and - a substantially figure-eight-shaped carrying device, which is formed by a first loop and a second loop arranged on said first loop , wherein either the first loop is formed in part by at least one section of the first peripheral side , or wherein one part of the first loop extends along at least one section of the first peripheral side , and wherein the carrying device is configured such that simultaneously a first arm of the person can be passed through the first loop and a second arm of the person can be passed through the second loop , characterized in that the size of at least the first loop or the second loop is adjustable in that at least the first loop or the second loop is formed at least in part by a cord , which is guided out of the interior of the main body in a controlled manner via an aperture . - a main body having a first peripheral side ; and - a substantially figure-eight-shaped carrying device, which is formed by a first loop and a second loop arranged on said first loop ,
A method for computer-aided generation of tool parameters for tools for the manufacture of sheet-metal forming parts by way of forming processes, wherein a representation of a manufacturing process is produced, which representation comprises a set of machining steps and geometric parameters of these machining steps, wherein the method comprises the following steps: • determining a set of geometry features of a part in a geometry model of the part , wherein each of the geometry features is described by way of a feature type and by way of geometric parameters for describing the geometric shape of the geometry feature ; • determining an associated method standard for each of the geometry features , wherein a method standard describes one variant for manufacturing the respective geometry feature , and the selection of the method standards which can be associated with a certain geometry feature is dependent on the feature type of the geometry feature , • wherein the machining steps for a feature that are executed within in the same forming operation constitute a machining unit, • wherein a machining unit is represented and described by a module, and • wherein a method standard comprises at least one module; characterised by • determining a method plan, wherein a method plan comprises an ordered sequence of machining steps and further comprises the geometric parameters of these machining steps, by way of associating each of the modules with a forming operation, whilst taking into account constraints which control the distribution of the modules to the operations. • determining a set of geometry features of a part in a geometry model of the part , wherein each of the geometry features is described by way of a feature type and by way of geometric parameters for describing the geometric shape of the geometry feature ; • determining an associated method standard for each of the geometry features , wherein a method standard describes one variant for manufacturing the respective geometry feature , and the selection of the method standards which can be associated with a certain geometry feature is dependent on the feature type of the geometry feature , • wherein the machining steps for a feature that are executed within in the same forming operation constitute a machining unit, • wherein a machining unit is represented and described by a module, and • wherein a method standard comprises at least one module; • wherein the machining steps for a feature that are executed within in the same forming operation constitute a machining unit, • wherein a machining unit is represented and described by a module, and • wherein a method standard comprises at least one module; • determining a method plan, wherein a method plan comprises an ordered sequence of machining steps and further comprises the geometric parameters of these machining steps, by way of associating each of the modules with a forming operation, whilst taking into account constraints which control the distribution of the modules to the operations.
A method for the implementation of an energy supply operation between an energy supply unit and at least one motor vehicle (K1, K2), to be supplied with energy, wherein a position of a vehicle-side energy supply interface is determined and an automated coupling between the vehicle-side energy supply interface and an energy supply interface of the energy supply unit takes place, in that the energy supply interface of the energy supply unit is moved by a robot to the vehicle-side energy supply interface and is coupled thereto, characterized in that the position of the vehicle-side energy supply interface relative to the energy supply unit is determined prior to implementation of the energy supply operation by the motor vehicle (K1, K2) itself and is transmitted from the motor vehicle (K1, K2) to the energy supply unit .
Vehicle for transporting cargo , having a cargo receiving portion which is arranged on a chassis , wherein the cargo receiving portion has a retaining element that secures the cargo at the edge of the cargo receiving portion and wherein a vehicle control system is provided, and wherein the retaining element extends only over a partial region of the perimeter of the cargo receiving portion , and characterised in that the retaining element is designed to rotate about a vertical axis , wherein the vehicle control system is configured such that, as a result of each current or expected acceleration or deceleration of the chassis , the retaining element is oriented about the vertical axis , relative to the current direction of travel, such that the retaining element is at least on the side of the cargo receiving portion towards which the cargo moves after overcoming the static friction between the surface of the load receiving portion and the contact surface of the cargo . which is arranged on a chassis , wherein the cargo receiving portion has a retaining element that secures the cargo at the edge of the cargo receiving portion and wherein a vehicle control system is provided, and wherein the retaining element extends only over a partial region of the perimeter of the cargo receiving portion , and characterised in that the retaining element is designed to rotate about a vertical axis , wherein the vehicle control system is configured such that, as a result of each current or expected acceleration or deceleration of the chassis , the retaining element is oriented about the vertical axis , relative to the current direction of travel, such that the retaining element is at least on the side of the cargo receiving portion towards which the cargo moves after overcoming the static friction between the surface of the load receiving portion and the contact surface of the cargo .
A device for accelerating the hardening of impression material suitable for copying the shape of teeth and mucous membranes, comprising: - at least one impression tray , having at least one working portion provided with a working face defining at least one hollow and with a base face opposite to said working face , - and heat-sensitive impression material located at least in said hollow , - characterised in that it comprises at least one heating plate which heats up through an exothermic chemical reaction that can be activated on command, - and in that said heating plate is engaged with said tray so as to transfer heat to said impression material . - at least one impression tray , having at least one working portion provided with a working face defining at least one hollow and with a base face opposite to said working face , - and heat-sensitive impression material located at least in said hollow , - characterised in that it comprises at least one heating plate which heats up through an exothermic chemical reaction that can be activated on command, - and in that said heating plate is engaged with said tray so as to transfer heat to said impression material .
A vehicle comprising: - a tractor unit ; - a first trailer connected to the tractor unit ; - a second trailer connected to the first trailer ; - at least one laser scanner mounted on the tractor unit ; - an on-board vehicle computer system communicatively coupled to the at least one laser scanner mounted on the tractor unit , wherein said vehicle further comprises: - at least one additional laser scanner mounted on the first trailer and - wherein the on-board vehicle computer system communicatively coupled to the at least one additional laser scanner mounted on the first trailer , characterized in that the on-board vehicle computer system is configured to use information obtained from the at least one laser scanner mounted on the tractor unit to calculate a cab-trailer angle for the vehicle, and wherein the on-board vehicle computer system is further configured to use information obtained from the at least one additional laser scanner mounted on the first trailer to calculate a trailer-trailer angle between the first trailer and the second trailer in a multi trailer configuration. - a tractor unit ; - a first trailer connected to the tractor unit ; - a second trailer connected to the first trailer ; - at least one laser scanner mounted on the tractor unit ; - an on-board vehicle computer system communicatively coupled to the at least one laser scanner mounted on the tractor unit , wherein said vehicle further comprises: - at least one additional laser scanner mounted on the first trailer and - wherein the on-board vehicle computer system communicatively coupled to the at least one additional laser scanner mounted on the first trailer , characterized in that the on-board vehicle computer system is configured to use information obtained from the at least one laser scanner mounted on the tractor unit to calculate a cab-trailer angle for the vehicle, and wherein the on-board vehicle computer system is further configured to use information obtained from the at least one additional laser scanner mounted on the first trailer to calculate a trailer-trailer angle between the first trailer and the second trailer in a multi trailer configuration. the on-board vehicle computer system communicatively coupled to the at least one additional laser scanner mounted on the first trailer , characterized in that the on-board vehicle computer system is configured to use information obtained from the at least one laser scanner mounted on the tractor unit to calculate a cab-trailer angle for the vehicle, and wherein the on-board vehicle computer system is further configured to use information obtained from the at least one additional laser scanner mounted on the first trailer to calculate a trailer-trailer angle between the first trailer and the second trailer in a multi trailer configuration.
Process for processing a non-metallic melt , such as slag, into amorphous material , in which process the melt is vitrified by cooling, the melt being brought into contact with a metal bath for vitrification and then being removed from the metal bath as amorphous material , the melt being introduced into the metal bath via an open end (4") of a submerged pipe which is submerged in the metal bath and being conveyed in the metal bath from the region of the open end (4") of the submerged pipe , preferably by means of a mechanical disintegrator , preferably a rotor , characterised in that the heat introduced into the metal bath by the melt is used for pyrolysis of at least one organic-containing waste material and is thereby dissipated.
A method for manufacturing a pierced stone , in particular forming a bearing, comprising a through hole opening into an upper surface and into a lower surface of said stone, said lower surface comprising a functional element , the method comprising the following steps: - producing a precursor from a mixture of at least one powdered material with a binder; - pressing the precursor to form a green body of the future pierced stone , said green body comprising a blind cavity with a height (H2) comprised between a height (H3) of the green body and a height (H1) of the future pierced stone , the cavity being provided with upper and lower parts respectively forming ébauches of the through hole and of said functional element of the future pierced stone , said pressing step being carried out using an upper die and a lower die said lower die comprising a punch designed to form either the lower part for making the ébauche of the functional element or the upper part for making the ébauche of the through hole ; - sintering said green body to form a body of the future pierced stone from said at least one material, and - machining the body of the future pierced stone , comprising a first sub-step of shaping a top of said body so as to define said upper surface of said pierced stone said shaping resulting in the production of an opening leading to the ébauche of the through hole enabling the ébauche of the functional element to be joined to said upper surface , said machining also comprising a second sub-step of shaping a base of the body , in which a height (H4) of the lower part comprising the ébauche of the functional element is configured. - producing a precursor from a mixture of at least one powdered material with a binder; - pressing the precursor to form a green body of the future pierced stone , said green body comprising a blind cavity with a height (H2) comprised between a height (H3) of the green body and a height (H1) of the future pierced stone , the cavity being provided with upper and lower parts respectively forming ébauches of the through hole and of said functional element of the future pierced stone , said pressing step being carried out using an upper die and a lower die said lower die comprising a punch designed to form either the lower part for making the ébauche of the functional element or the upper part for making the ébauche of the through hole ; - sintering said green body to form a body of the future pierced stone from said at least one material, and - machining the body of the future pierced stone , comprising a first sub-step of shaping a top of said body so as to define said upper surface of said pierced stone said shaping resulting in the production of an opening leading to the ébauche of the through hole enabling the ébauche of the functional element to be joined to said upper surface , said machining also comprising a second sub-step of shaping a base of the body , in which a height (H4) of the lower part comprising the ébauche of the functional element is configured.
An organopolysiloxane represented by the general formula: wherein, R 1 s are the same or different aliphatic unsaturated monovalent hydrocarbon groups having 2 to 12 carbon atoms, R 2 s are the same or different monovalent hydrocarbon groups having 1 to 12 carbon atoms and not having an aliphatic unsaturated bond, R 3 s are the same or different alkyl groups having 1 to 3 carbon atoms, "n" is an integer of from 1 and 500, and "a" is 0 or 1.
An exhaust gas mixer, comprising: an inner tube defining a central conduit; an outer tube positioned about the inner tube in coaxial alignment with the inner tube ; and a plurality of blades coupled to and positioned between the inner and outer tubes , wherein each of the plurality of blades comprises a radially inner edge fixed to the inner tube and a radially outer edge fixed to the outer tube , the radially inner edge and the radially outer edge being non-parallel to a central axis of the inner tube , the radially inner edge defining a first angle (θ) relative to the central axis at a junction (A) with a leading edge of each of the plurality of blades , and the radially outer edge defining a second angle (β) relative to the central axis at a junction (B) with the leading edge of each of the plurality of blades , wherein the first angle (Θ) and the second angle (β) are different, characterized in that the first angle (θ) is between 30° and 50°, and the second angle (β) is between 50° and 70°. an inner tube defining a central conduit; an outer tube positioned about the inner tube in coaxial alignment with the inner tube ; and a plurality of blades coupled to and positioned between the inner and outer tubes , wherein each of the plurality of blades comprises a radially inner edge fixed to the inner tube and a radially outer edge fixed to the outer tube , the radially inner edge and the radially outer edge being non-parallel to a central axis of the inner tube , the radially inner edge defining a first angle (θ) relative to the central axis at a junction (A) with a leading edge of each of the plurality of blades , and the radially outer edge defining a second angle (β) relative to the central axis at a junction (B) with the leading edge of each of the plurality of blades , wherein the first angle (Θ) and the second angle (β) are different, characterized in that the first angle (θ) is between 30° and 50°, and the second angle (β) is between 50° and 70°.
Method for providing a proxy service in an industrial system comprising a Software Defined Network, SDN, with an SDN controller node , the method comprising: - providing a proxy service engine comprising at least one proxy service node , the proxy service engine residing in a virtualization environment running on distributed compute nodes ; - intercepting and re-directing, by the SDN controller node , an incoming service request intended for a target automation device to the at least one proxy service node based on a rule set, the re-directing involving the determination of a target address in accordance with the rule set and the routing of the service request to the determined target address; - processing the service request by the at least one proxy service node ; and - delivering the requested service; wherein the rule set comprises: • target addresses for physical automation devices , virtual automation devices and proxy service nodes ; and • associations of predetermined criteria and each of the target addresses; and wherein the predetermined criteria include: an IP-address, a protocol type, a service request type, a source type, sub-functions of a protocol, type of optional commands, additional SNMP MIBs, alternate or augmented webpages, and data content. - providing a proxy service engine comprising at least one proxy service node , the proxy service engine residing in a virtualization environment running on distributed compute nodes ; - intercepting and re-directing, by the SDN controller node , an incoming service request intended for a target automation device to the at least one proxy service node based on a rule set, the re-directing involving the determination of a target address in accordance with the rule set and the routing of the service request to the determined target address; - processing the service request by the at least one proxy service node ; and - delivering the requested service; • target addresses for physical automation devices , virtual automation devices and proxy service nodes ; and • associations of predetermined criteria and each of the target addresses; and wherein the predetermined criteria include: an IP-address, a protocol type, a service request type, a source type, sub-functions of a protocol, type of optional commands, additional SNMP MIBs, alternate or augmented webpages, and data content.
Lubricating oil composition for diesel engines characterised in that it contains: a) a base oil with a kinematic viscosity at 100°C of 4.5 to 5.5 mm 2 /s, consisting of either a single GTL base oil with a kinematic viscosity at 100°C of 4.5 to 5.5 mm 2 /s or a mixture of i)a GTL base oil with a kinematic viscosity at 100°C of 3.0 to 6.0 mm 2 /s; and ii) a GTL base oil with a kinematic viscosity at 100°C of 7.0 to 13 mm 2 /s, b) a comb-like polymethacrylate based viscosity index improver and c) a boron-containing dispersant and boron-containing detergent, wherein the total amount of boron-containing dispersant and/or boron-containing detergent incorporated in terms of conversion to boron content relative to the total amount of the composition being not less than 0.025 mass% and not more than 0.050 mass%, and wherein it satisfies 0W-30 or 5W-30 in the SAE J300 standard. a) a base oil with a kinematic viscosity at 100°C of 4.5 to 5.5 mm 2 /s, consisting of either a single GTL base oil with a kinematic viscosity at 100°C of 4.5 to 5.5 mm 2 /s or a mixture of i)a GTL base oil with a kinematic viscosity at 100°C of 3.0 to 6.0 mm 2 /s; and ii) a GTL base oil with a kinematic viscosity at 100°C of 7.0 to 13 mm 2 /s, b) a comb-like polymethacrylate based viscosity index improver and c) a boron-containing dispersant and boron-containing detergent, wherein the total amount of boron-containing dispersant and/or boron-containing detergent incorporated in terms of conversion to boron content relative to the total amount of the composition being not less than 0.025 mass% and not more than 0.050 mass%,
A method performed by a wireless device for handling uplink, UL, communication from the wireless device in a wireless communication network , which wireless device is configured with one or more Semi Persistent Scheduling, SPS, grants and to skip padding transmissions on UL transmissions of SPS grants, the method comprising: - receiving a dynamic UL grant from a radio network node indicating one or more resources for an UL transmission to the radio network node ; - determining that a Hybrid Automatic Repeat Request, HARQ, buffer for transmission of a previous transmission relative the UL transmission comprises data, which HARQ buffer is associated with a same HARQ process as the dynamic UL grant; and - transmitting the data in the HARQ buffer using one or more resources as indicated by the dynamic UL grant when determined that the HARQ buffer comprises data. - receiving a dynamic UL grant from a radio network node indicating one or more resources for an UL transmission to the radio network node ; - determining that a Hybrid Automatic Repeat Request, HARQ, buffer for transmission of a previous transmission relative the UL transmission comprises data, which HARQ buffer is associated with a same HARQ process as the dynamic UL grant; and - transmitting the data in the HARQ buffer using one or more resources as indicated by the dynamic UL grant when determined that the HARQ buffer comprises data.