mhurhangee/patent-ind-claim-en huggingface dataset:
Oil separator for separating oil mist and /or oil droplets from gases with a housing , a separating chamber arranged in the housing , wherein the separating chamber having an inlet for gases and an outlet for the gases and in the separating chamber a plate separator for separating oil mist and /or oil droplets is rotatably arranged from the gases, a drive chamber arranged in the housing , in which a drive element is arranged, wherein the separating chamber and the drive chamber being separated from one another by means of a partition , a shaft which extends via a through-opening in the partition from the drive chamber to the separation chamber and which rotatably connects the drive element to the plate separator , characterized in that a seal is arranged between the partition and the shaft with two sealing elements interacting in a sealing manner around a region surrounding the shaft , of which a first sealing element is arranged on the partition along the peripheral edge of the through-opening and a second sealing element is connected to the shaft , wherein the shaft has a casing made of plastic, which forms the part of the plate separator adjacent to the partition at least in regions and which continues into the sealed region, and that the second sealing element is arranged on the casing .
A sulfide solid electrolyte, comprising lithium, phosphorus, sulfur, chlorine and bromine, wherein in powder X-ray diffraction analysis using CuKa rays, the sulfide solid electrolyte has a diffraction peak A at 2θ=25.2±0.5 deg and a diffraction peak B at 2θ=29.7±0.5 deg, the diffraction peak A and the diffraction peak B satisfy formula (A), and a molar ratio of the chlorine to the phosphorus, c (Cl/P), and a molar ratio of the bromine to the phosphorus, d (Br/P), satisfy formula : 1.2 < c + d < 1.9 0.845 < S A / S B < 1.200 wherein S A is an area of the diffraction peak A and S B is an area of the diffraction peak B.
Device (10; 50) for mechanically comminuting materials, comprising at least one rotor rotating about a vertical axis of rotation (R), which is arranged in a comminution chamber and which, at least during operation, has impact tools extending at least substantially radially into the comminution chamber, wherein the comminuting chamber is surrounded by a vertically extending, in particular circular cylindrical and/or conically downwardly widened comminuting chamber wall , which comminuting chamber has a feed side at its upper end face and an outlet side at its lower end face; wherein the rotor is held at its lower end stationary with respect to a support base of the apparatus and the comminuting chamber wall is supported on the support base, the comminuting chamber wall being held vertically adjustable relative to the support base in the direction of the rotor axis (R) by a lifting device, the lifting device having a working position in which the lower edge of the comminuting chamber wall is arranged close to the support base or a part connected thereto, characterized in that the lifting device has a maintenance position in which the lower edge of the comminuting chamber wall is raised vertically above at least one of the impact tools , and in that it comprises a speed detection device for the rotors which emits an enabling signal when all the rotors are at a standstill, and a safety circuit which does not allow power to be supplied to a drive of the lifting device until the enabling signal is present.
An information processing program for causing a computer of an information processing device to execute an information process according to an operation to an operating unit and cause a display unit to display an image, the program causing the computer to function as: a camera control unit that controls an imaging range or an imaging direction of a virtual camera in a virtual space; a display control unit that causes the display unit to display an image taken by the virtual camera; an action control unit that controls an action of a player object in the virtual space according to the operation to the operating unit : and a setting unit that sets any one of a plurality of non-player objects other than the player object as a target object to aim, wherein the setting unit is capable of setting the non-player object arranged outside the imaging range of the virtual camera as the target object, and the action control unit controls the action of the player object such that a predetermined effect acts on the target object when the non-player object arranged outside the imaging range of the virtual camera is set as the target object. a camera control unit that controls an imaging range or an imaging direction of a virtual camera in a virtual space; a display control unit that causes the display unit to display an image taken by the virtual camera; an action control unit that controls an action of a player object in the virtual space according to the operation to the operating unit : and a setting unit that sets any one of a plurality of non-player objects other than the player object as a target object to aim, wherein the setting unit is capable of setting the non-player object arranged outside the imaging range of the virtual camera as the target object, and the action control unit controls the action of the player object such that a predetermined effect acts on the target object when the non-player object arranged outside the imaging range of the virtual camera is set as the target object.
A method of radio resource control in a communication network entity designed for supporting a communication between a terminal and a communication network that comprises said communication network entity , said communication between said communication network and said terminal being carried over one or more radio resources, said communication network being arranged to support a radio resource control suspend operation wherein said communication network stores respective radio resource control information related to a configured connected state of said terminal , said radio resource control information comprising radio resource configuration information associated with a set of radio resources associated with said configured connected state, said communication network furthermore being arranged to support a radio resource control resume operation wherein said communication network uses the respectively stored radio resource control information for resuming a connected state of said terminal, said method comprising performing an admission control process during said radio resource control resume operation, said admission control process comprising a procedure for examining whether said connected state is to be resumed according to the stored radio resource configuration information or if a radio resource reconfiguration procedure is to be performed for resuming the connected state. said communication network being arranged to support a radio resource control suspend operation wherein said communication network stores respective radio resource control information related to a configured connected state of said terminal , said radio resource control information comprising radio resource configuration information associated with a set of radio resources associated with said configured connected state, said communication network furthermore being arranged to support a radio resource control resume operation wherein said communication network uses the respectively stored radio resource control information for resuming a connected state of said terminal, said method comprising performing an admission control process during said radio resource control resume operation, said admission control process comprising a procedure for examining whether said connected state is to be resumed according to the stored radio resource configuration information or if a radio resource reconfiguration procedure is to be performed for resuming the connected state.
A method of manufacturing a gas turbine component, the method comprising: generating data defining a thin metal part , the thin metal part having a length to thickness ratio of at least 3.5:1; determining a build direction of the thin metal part ; generating data defining at least one conduction riser , the at least one conduction riser located on a surface of the thin metal part ; manufacturing the thin metal part and the at least one conduction riser using an additive manufacturing process; wherein the at least one conduction riser comprises a projection additively manufactured onto a surface of the additively manufactured thin metal part, the projection normal to the thin metal part; the projection traversing the surface of the thin metal part; and the projection having a continuous cross-section; wherein the thin metal part is an impingement baffle including impingement holes; wherein the at least one conduction riser is attached to a supply surface of the impingement baffle; wherein the at least one conduction riser comprises a continuous bulge projecting from the surface of the thin metal part; wherein the at least one conduction riser extends in a build direction of the thin metal part. generating data defining a thin metal part , the thin metal part having a length to thickness ratio of at least 3.5:1; determining a build direction of the thin metal part ; generating data defining at least one conduction riser , the at least one conduction riser located on a surface of the thin metal part ; manufacturing the thin metal part and the at least one conduction riser using an additive manufacturing process; wherein the at least one conduction riser comprises a projection additively manufactured onto a surface of the additively manufactured thin metal part, the projection normal to the thin metal part; the projection traversing the surface of the thin metal part; and the projection having a continuous cross-section; wherein the thin metal part is an impingement baffle including impingement holes; wherein the at least one conduction riser is attached to a supply surface of the impingement baffle; wherein the at least one conduction riser comprises a continuous bulge projecting from the surface of the thin metal part; wherein the at least one conduction riser extends in a build direction of the thin metal part.
Multi-layered packaging foil comprising - a layer L-1 having an oxygen gas transmission rate OGTR-1; - a luminescent compound having the property that its luminescence is capable of being quenched by oxygen; - a layer L-2 adhering to L-1 and to the luminescent compound; wherein the luminescent compound is present between L-1 and L-2 and completely enclosed by L-1 and L-2, characterized in that - the layer L-2 has an oxygen gas transmission rate OGTR-2 that is at least 1,000 times higher than OGTR-1; and - OGTR-1 is 3 cm 3 m -2 day -1 or less at 25 °C and 0% RH at 1 atm oxygen partial pressure difference (ASTM D3985); and - OGTR-2 is 3,000 cm 3 m -2 day -1 or more at 25 °C and 0% RH at 1 atm oxygen partial pressure difference (ASTM D3985). - a layer L-1 having an oxygen gas transmission rate OGTR-1; - a luminescent compound having the property that its luminescence is capable of being quenched by oxygen; - a layer L-2 adhering to L-1 and to the luminescent compound; wherein the luminescent compound is present between L-1 and L-2 and completely enclosed by L-1 and L-2, characterized in that - the layer L-2 has an oxygen gas transmission rate OGTR-2 that is at least 1,000 times higher than OGTR-1; and - OGTR-1 is 3 cm 3 m -2 day -1 or less at 25 °C and 0% RH at 1 atm oxygen partial pressure difference (ASTM D3985); and - OGTR-2 is 3,000 cm 3 m -2 day -1 or more at 25 °C and 0% RH at 1 atm oxygen partial pressure difference (ASTM D3985).
A method for producing a sweet whey preparation [BIOWPC] comprising the sequential steps of a) providing a sweet whey, b) applying a heat treatment of the sweet whey between 60°C and 68°C for less than 20 seconds, c) applying a separation of the sweet whey, which separation is a pressure driven membrane separation and selected from ultrafiltration, reverse osmosis and nano filtration, d) applying a microfiltration on the retentate from step c), e) applying a separation on the permeate from step d), which separation is ultrafiltration, f) applying a heat treatment between 60°C and 65°C for less than 20 seconds on the retentate of step e), g) cooling the product obtained in f) to less than 15°C, and h) spray-drying said product, thereby obtaining the sweet whey preparation. a) providing a sweet whey, b) applying a heat treatment of the sweet whey between 60°C and 68°C for less than 20 seconds, c) applying a separation of the sweet whey, which separation is a pressure driven membrane separation and selected from ultrafiltration, reverse osmosis and nano filtration, d) applying a microfiltration on the retentate from step c), e) applying a separation on the permeate from step d), which separation is ultrafiltration, f) applying a heat treatment between 60°C and 65°C for less than 20 seconds on the retentate of step e), g) cooling the product obtained in f) to less than 15°C, and h) spray-drying said product,
Process for producing finely divided silicon dioxide, characterized in that - as Si source a mixture of at least two silicon compounds is used, at least one silicon compound being carbon-containing and at least one silicon compound being carbon-free, - a fuel gas is supplied, - an oxygen-containing source is supplied, - the molar C/Si ratio of this mixture containing the silicon compounds, the fuel gas and the oxygen-containing source is between 10/BET and 35/BET and the molar H/Cl ratio of this mixture is between 0.45+(BET/600) and 0.95+(BET/600), where BET is the specific surface area of the pyrogenic silicon dioxide under production, measured by the BET method (corresponding to DIN ISO 9277), - this mixture is introduced as the main flow into a reaction space and ignited and reacted, and - the resulting solid is isolated. - as Si source a mixture of at least two silicon compounds is used, at least one silicon compound being carbon-containing and at least one silicon compound being carbon-free, at least one silicon compound being carbon-containing and at least one silicon compound being carbon-free, - a fuel gas is supplied, - an oxygen-containing source is supplied, - the molar C/Si ratio of this mixture containing the silicon compounds, the fuel gas and the oxygen-containing source is between 10/BET and 35/BET and the molar H/Cl ratio of this mixture is between 0.45+(BET/600) and 0.95+(BET/600), where BET is the specific surface area of the pyrogenic silicon dioxide under production, measured by the BET method (corresponding to DIN ISO 9277), - this mixture is introduced as the main flow into a reaction space and ignited and reacted, and - the resulting solid is isolated.
Plant for the continuous production of fatty alcohol from fatty acid ester, in particular wax ester, by catalytic trickle-bed hydrogenation, comprising supply conduits for the fatty acid ester and fresh and for recirculated hydrogen, a discharge conduit for the liquid product mixture containing fatty alcohol, a return conduit for non-converted hydrogen, and several, preferably two, shaft reactors each containing at least one catalyst fixed bed, which are connected with each other via pipe conduits such that they can be traversed by the educt/product mixture one after the other, wherein the plant and the reactors are configured such that quench hydrogen can be fed below the catalyst bed(s) and/or into the transfer conduit between the reactors, characterised in that the reactors are connected with each other by pipelines such that a) the order in which the reactors are traversed by the educt/product mixture is freely selectable and b) each reactor can also each be traversed alone, bypassing the respective other reactor and c) each of the reactors is configured with respect to the catalyst fixed bed(s) contained therein such that at a specified production output of the plant, the required degree of conversion of the educts can be achieved with the passage through only one of the reactors at least for the duration of an exchange of the catalyst fixed bed(s) in the respective other reactor and d) characterised in that temperature measurement devices for visualisation of the temperature profile over the length of the fixed bed are installed in the shaft reactors. a) the order in which the reactors are traversed by the educt/product mixture is freely selectable and b) each reactor can also each be traversed alone, bypassing the respective other reactor and c) each of the reactors is configured with respect to the catalyst fixed bed(s) contained therein such that at a specified production output of the plant, the required degree of conversion of the educts can be achieved with the passage through only one of the reactors at least for the duration of an exchange of the catalyst fixed bed(s) in the respective other reactor and d) characterised in that temperature measurement devices for visualisation of the temperature profile over the length of the fixed bed are installed in the shaft reactors.
Machine comprising: - conveying means , to convey a substrate (S) along a conveying direction (A), - a device for discharging particle material, such as powder material, granules or capsules, or in general a free-flowing material, such as, for example, adhesive material, onto said substrate (S) moving along said conveying direction (A), - said device comprising at least one drum rotor (R) having a plurality of cavities (E1, E2, ...) suitable for carrying the material to be deposited, said drum rotor (R) being placed adjacent to the substrate (S), with the axis (X) of the drum rotor (R) substantially parallel to said conveying direction (A), - means of controlling a rotation of the drum rotor (R) around the axis thereof, said machine being characterized in that the aforesaid cavities are arranged on the drum rotor (R), whereby, in operation, the rotary motion of the drum rotor (R), in combination with the motion of the substrate (S) along said conveying direction (A), causes each cavity, when it is closest to the substrate, to follow a helical path relative to a reference point that moves with the substrate. - conveying means , to convey a substrate (S) along a conveying direction (A), - a device for discharging particle material, such as powder material, granules or capsules, or in general a free-flowing material, such as, for example, adhesive material, onto said substrate (S) moving along said conveying direction (A), - said device comprising at least one drum rotor (R) having a plurality of cavities (E1, E2, ...) suitable for carrying the material to be deposited, said drum rotor (R) being placed adjacent to the substrate (S), with the axis (X) of the drum rotor (R) substantially parallel to said conveying direction (A), - means of controlling a rotation of the drum rotor (R) around the axis thereof,
Method for performing an onboard service by means of a mobile unit , in which - the mobile unit is used to send first request data to a vehicle unit , - the vehicle unit is used to take the first request data as a basis for sending second request data to a service unit , - the service unit is used to take the second request data as a basis for sending authorization data to the vehicle unit , - the vehicle unit is used to take the authorization data as a basis for sending the authorization data to the mobile unit , - the mobile unit is used to take the authorization data as a basis for communicating with the service unit to perform the service, the mobile unit using a first communication interface of the mobile unit to communicate with the vehicle unit and using a second communication interface of the mobile unit to communicate with the service unit , wherein the first communication interface of the mobile unit is a Bluetooth interface, the vehicle unit being permanently installed in a motorcycle. - the mobile unit is used to send first request data to a vehicle unit , - the vehicle unit is used to take the first request data as a basis for sending second request data to a service unit , - the service unit is used to take the second request data as a basis for sending authorization data to the vehicle unit , - the vehicle unit is used to take the authorization data as a basis for sending the authorization data to the mobile unit , - the mobile unit is used to take the authorization data as a basis for communicating with the service unit to perform the service, the mobile unit using a first communication interface of the mobile unit to communicate with the vehicle unit and using a second communication interface of the mobile unit to communicate with the service unit ,
The use of isosorbide monoethers according to general formula (I) wherein R' represents an alkyl- or unsaturated alkenyl moiety and R" represents a hydrogen atom as thickener for aqueous surfactant compositions, wherein the thickening effective amount ranges from 0.1% to 5.0% by weight.
A fruit jam comprising a fruit and a saccharide containing allulose, wherein the allulose has an amount of 200 to 300 parts by weight based on 100 parts by weight of the fruit.
An orthodontic attachment device for interacting with an orthodontic appliance, the device comprising: an anchoring attachment body comprising a first material having a first elastic modulus, and a second material having a second elastic modulus, wherein the second material is more elastic than the first material; a bonding surface on the anchoring attachment body, said bonding surface configured for anchoring the anchoring attachment body to a tooth; and an orthodontic appliance engagement surface on the anchoring attachment body, the orthodontic appliance engagement surface configured to contact the orthodontic appliance in use so that force may be applied between the tooth and the orthodontic appliance through the orthodontic attachment device; wherein the first material is arranged as a frame extending between the bonding surface and the orthodontic appliance engagement surface, further wherein the second material is at least partially between a bonding surface portion of the frame and an orthodontic appliance engagement surface portion of the frame. an anchoring attachment body comprising a first material having a first elastic modulus, and a second material having a second elastic modulus, wherein the second material is more elastic than the first material; a bonding surface on the anchoring attachment body, said bonding surface configured for anchoring the anchoring attachment body to a tooth; and an orthodontic appliance engagement surface on the anchoring attachment body, the orthodontic appliance engagement surface configured to contact the orthodontic appliance in use so that force may be applied between the tooth and the orthodontic appliance through the orthodontic attachment device; wherein the first material is arranged as a frame extending between the bonding surface and the orthodontic appliance engagement surface, further wherein the second material is at least partially between a bonding surface portion of the frame and an orthodontic appliance engagement surface portion of the frame.