mhurhangee/patent-ind-claim-en huggingface dataset:
In vitro or ex vivo use of a composition comprising of consisting essentially of at least Bacillus subtilis NOL03, Bacillus subtilis NOL01 and Bacillus subtilis NOL02 strains, - said Bacillus subtilis NOL03 being deposited at CNCM under number CNCM I - 4607; - said Bacillus subtilis NOL01 being deposited at CNCM under number CNCM I - 4606; and - said Bacillus subtilis NOL02 being deposited at CNCM under number CNCM I - 5043; for degrading at least one mycotoxin, said at least one mycotoxin being chosen from zearalenone, aflatoxines B1, B2, G1 and G2, deoxynivalenol or nivalenol and fumonisin B1. - said Bacillus subtilis NOL03 being deposited at CNCM under number CNCM I - 4607; - said Bacillus subtilis NOL01 being deposited at CNCM under number CNCM I - 4606; and - said Bacillus subtilis NOL02 being deposited at CNCM under number CNCM I - 5043;
A display device (100, 100b-100d) comprising: a light source that emits a light beam; a first optical system that converts the light beam emitted from the light source into a collimated light beam; a first mirror that reflects the light beam coming through the first optical system while rotating around a first axis; a changing element that changes a traveling direction of the light beam reflected by the first mirror , the changing element having a central section and a peripheral section outside the central section; and a second optical system that deflects the light beam coming through the changing element toward a crystalline lens of an eye, wherein an angle of the light beam in the traveling direction changes from an angle (Ai) at which the light beam is incident on the changing element to an angle (Ao) at which the light beam is output through the changing element , and the changing element changes the traveling direction of the light beam such that the angle of the light beam in the traveling direction which is reflected by the first mirror is changed more greatly in the peripheral section than in the central section, thereby forming an image with a wider angle of view, and wherein an image displayed by the light beam passing through the changing element has a lower resolution in the peripheral section than in the central section, the size of the light beam on the crystalline lens is set to about 2mm or more, and the display device is positionable near eyes in order to use the characteristic that human eyesight is weaker in a peripheral region than in a central region. a light source that emits a light beam; a first optical system that converts the light beam emitted from the light source into a collimated light beam; a first mirror that reflects the light beam coming through the first optical system while rotating around a first axis; a changing element that changes a traveling direction of the light beam reflected by the first mirror , the changing element having a central section and a peripheral section outside the central section; and a second optical system that deflects the light beam coming through the changing element toward a crystalline lens of an eye, wherein an angle of the light beam in the traveling direction changes from an angle (Ai) at which the light beam is incident on the changing element to an angle (Ao) at which the light beam is output through the changing element , and the changing element changes the traveling direction of the light beam such that the angle of the light beam in the traveling direction which is reflected by the first mirror is changed more greatly in the peripheral section than in the central section, thereby forming an image with a wider angle of view, and wherein an image displayed by the light beam passing through the changing element has a lower resolution in the peripheral section than in the central section, the size of the light beam on the crystalline lens is set to about 2mm or more, and the display device is positionable near eyes in order to use the characteristic that human eyesight is weaker in a peripheral region than in a central region.
A method comprising: receiving, by a central analytics system , a query for traffic flow data associated with a geographically distributed network of network devices; outputting, by the central analytics system, the query to a plurality of analytics pods , wherein each of the plurality of analytics pods is coupled to raw storage of a network device within the geographically distributed network, wherein each of the plurality of analytics pods is coupled to one or more collectors (308A, 308B, 308C, ..., 308N) connected to the respective network device that accumulate, in raw storage of the respective network device, flow statistics for traffic associated with the respective network device, and further wherein each of the plurality of analytics pods maps each data type of data emitted by the respective network device to a specific collector of the respective one or more collectors and tracks the amount of raw storage that is allocated to the specific collector, wherein the tracked amount of raw storage is used by an aging policy module of the respective network device which determines how long the accumulated flow statistics associated with the respective network device are kept in the raw storage; and responsive to outputting the query, receiving, by the central analytics system and from the plurality of analytics pods, results of the query, wherein the results include at least the traffic flow data from the plurality of analytics pods based on the query. receiving, by a central analytics system , a query for traffic flow data associated with a geographically distributed network of network devices; outputting, by the central analytics system, the query to a plurality of analytics pods , wherein each of the plurality of analytics pods is coupled to raw storage of a network device within the geographically distributed network, wherein each of the plurality of analytics pods is coupled to one or more collectors (308A, 308B, 308C, ..., 308N) connected to the respective network device that accumulate, in raw storage of the respective network device, flow statistics for traffic associated with the respective network device, and further wherein each of the plurality of analytics pods maps each data type of data emitted by the respective network device to a specific collector of the respective one or more collectors and tracks the amount of raw storage that is allocated to the specific collector, wherein the tracked amount of raw storage is used by an aging policy module of the respective network device which determines how long the accumulated flow statistics associated with the respective network device are kept in the raw storage; and responsive to outputting the query, receiving, by the central analytics system and from the plurality of analytics pods, results of the query, wherein the results include at least the traffic flow data from the plurality of analytics pods based on the query.
Control method for regulating an electric motor for the pushing aid of an electric bicycle at least comprising the steps • detecting activation of the pushing aid, and • detecting a current inclination angle (α) of the electric bicycle with respect to the transverse axis of the electric bicycle , characterized in that the method comprises the following steps • sensing an acceleration (a z ) of the electric bicycle in the direction of the vertical axis, • determining a target speed (v ziel ) as a function of a maximum speed (v max ) and the sensed connection angle (α) of the electric bicycle and the sensed acceleration (a z ), and • regulating the electric motor as a function of the determined target speed (v Ziel ). • detecting activation of the pushing aid, and • detecting a current inclination angle (α) of the electric bicycle with respect to the transverse axis of the electric bicycle , characterized in that the method comprises the following steps • sensing an acceleration (a z ) of the electric bicycle in the direction of the vertical axis, • determining a target speed (v ziel ) as a function of a maximum speed (v max ) and the sensed connection angle (α) of the electric bicycle and the sensed acceleration (a z ), and • regulating the electric motor as a function of the determined target speed (v Ziel ).
A cosmetic composition having an antioxidant efficacy, the cosmetic composition comprising Dahlia pinnata extract, wherein the Dahlia pinnata composition has a content of the Dahlia pinnata extract in a range of from 500 μg/ml to 10000 μg/ml, wherein the Dahlia pinnata extract is extracted by adding and stirring 5 to 20 ml of ethanol per 1 g of Dahlia pinnata petals, and wherein the Dahlia pinnata composition has a phenolic compound content of 43.1 μg/100 mg to 56.5 μg/100 mg.
Vertical take-off and landing airborne object , comprising - a fuselage with a longitudinal axis (L) and - a plurality of casing bodies arranged on the fuselage , wherein - at least one of the casing bodies is rotatably mounted about a transverse axis (Q) arranged at an angle to the longitudinal axis (L), and wherein - the airborne object comprises at least one drive means with a rotatable turbomachine and one of the casing bodies , wherein - the rotatable turbomachine has an axis of rotation (R) rotatable through the transverse axis (Q), and - the casing body has a substantially cylindrical portion extending along the axis of rotation (R), wherein - the cylindrical portion coaxially surrounds the turbomachine , wherein - the casing body is designed as an annular wing, characterized in that - the casing body has a casing body longitudinal axis, and the casing body is rotatably mounted about the casing body longitudinal axis. - a fuselage with a longitudinal axis (L) and - a plurality of casing bodies arranged on the fuselage , wherein - at least one of the casing bodies is rotatably mounted about a transverse axis (Q) arranged at an angle to the longitudinal axis (L), and wherein - the airborne object comprises at least one drive means with a rotatable turbomachine and one of the casing bodies , wherein - the rotatable turbomachine has an axis of rotation (R) rotatable through the transverse axis (Q), and - the casing body has a substantially cylindrical portion extending along the axis of rotation (R), wherein - the cylindrical portion coaxially surrounds the turbomachine , wherein - the casing body is designed as an annular wing, characterized in that - the casing body has a casing body longitudinal axis, and the casing body is rotatably mounted about the casing body longitudinal axis.
A polycarbonate resin composition comprising a structural unit represented by the following formula , a structural unit represented by the following formula , and a structural unit represented by the following general formula , wherein the composition further comprises an antioxidant: wherein, in the general formula , R 1 to R 4 each independently represent a hydrogen atom, a fluorine atom, a chlorine atom, a bromine atom, an iodine atom, an alkyl group containing 1 to 6 carbon atoms, or an aryl group containing 6 to 20 carbon atoms which may optionally comprise a heterocyclic atom selected from an oxygen atom, a nitrogen atom and a sulfur atom, an alkenyl group containing 2 to 6 carbon atoms, an alkoxy group containing 1 to 6 carbon atoms or an aralkyl group containing 7 to 17 carbon atoms; p, q, r and s each independently represent an integer of 0 to 4; and i represents an integer of 1 to 10, and ii represents an integer of 0 to 10. wherein, in the general formula , R 1 to R 4 each independently represent a hydrogen atom, a fluorine atom, a chlorine atom, a bromine atom, an iodine atom, an alkyl group containing 1 to 6 carbon atoms, or an aryl group containing 6 to 20 carbon atoms which may optionally comprise a heterocyclic atom selected from an oxygen atom, a nitrogen atom and a sulfur atom, an alkenyl group containing 2 to 6 carbon atoms, an alkoxy group containing 1 to 6 carbon atoms or an aralkyl group containing 7 to 17 carbon atoms; p, q, r and s each independently represent an integer of 0 to 4; and i represents an integer of 1 to 10, and ii represents an integer of 0 to 10.
A freeze-drying tray, comprising a tray frame having a sealable access opening and a circumferential wall, which on a free edge has a first projection , on which a filter cloth is circumferentially affixed, characterized in that the filter cloth has a passage opening, through which a measuring sensor sleeve is passed or on which it rests, wherein the measuring sensor sleeve has a connecting edge , which surrounds an entrance opening for the insertion of a temperature sensor, and the filter cloth is sealingly fused and pressed along its outer edge with the tray frame and around the passage opening with the adjoining material of the measuring sensor sleeve in each case using heated tool welding.
A fan speed regulation system, configured in a network device, and comprising a monitoring board , a signal backplane , at least one temperature sensor array , at least one fan integration board , and at least one fan array , the monitoring board , the temperature sensor array and the fan integration board being communicatively connected to the signal backplane , and the fan integration board being communicatively connected to the fan array ; wherein: the monitoring board or the fan integration board is configured to calculate a rotational speed of the fan array according to temperature information and a preset speed regulation mode, and generate corresponding rotational speed control information, wherein the rotational speed control information comprises a target rotational speed of each fan and a corresponding relationship between a fan and a temperature sensor subarray ; the signal backplane is configured to transmit information; the temperature sensor array is configured to acquire temperature information of single boards in a network device; the fan integration board is further configured to regulate a rotational speed of each fan in the fan array according to the rotational speed control information; and the fan array is configured to dissipate heat of the network device; characterized in that , a separate control system is arranged on the fan integration board , the separate control system is able to independently obtain the temperature information acquired by the temperature sensor array , so as to generate corresponding rotational speed control information and control and drive a rotational speed of fans in the fan array , and thus the rotational speed of the fans is independently controlled and regulated by the fan integration board without the monitoring board . the monitoring board or the fan integration board is configured to calculate a rotational speed of the fan array according to temperature information and a preset speed regulation mode, and generate corresponding rotational speed control information, wherein the rotational speed control information comprises a target rotational speed of each fan and a corresponding relationship between a fan and a temperature sensor subarray ; the signal backplane is configured to transmit information; the temperature sensor array is configured to acquire temperature information of single boards in a network device; the fan integration board is further configured to regulate a rotational speed of each fan in the fan array according to the rotational speed control information; and the fan array is configured to dissipate heat of the network device; characterized in that , a separate control system is arranged on the fan integration board , the separate control system is able to independently obtain the temperature information acquired by the temperature sensor array , so as to generate corresponding rotational speed control information and control and drive a rotational speed of fans in the fan array , and thus the rotational speed of the fans is independently controlled and regulated by the fan integration board without the monitoring board .
An additive manufacturing system , comprising: a build material distributor to deposit layers of powdered build material onto a bed to form a three-dimensional printed object; a placement device to place a component on a layer of the 3D printed object ; a fusing agent distributor ; a heat source ; a controller configured to: deactivate the build material distributor to interrupt printing of the 3D printed object, printing being interrupted to place the component; activate the heat source to, during the interruption in printing, maintain a temperature of fused portions of a partially printed 3D object between a solidification temperature and a melting temperature for the build material; control the placement device to place a component on a layer of the 3D printed object ; deactivate the heat source ; and re-activate the build material distributor to resume printing of the 3D printed object. a build material distributor to deposit layers of powdered build material onto a bed to form a three-dimensional printed object; a placement device to place a component on a layer of the 3D printed object ; a fusing agent distributor ; a heat source ; a controller configured to: deactivate the build material distributor to interrupt printing of the 3D printed object, printing being interrupted to place the component; activate the heat source to, during the interruption in printing, maintain a temperature of fused portions of a partially printed 3D object between a solidification temperature and a melting temperature for the build material; control the placement device to place a component on a layer of the 3D printed object ; deactivate the heat source ; and re-activate the build material distributor to resume printing of the 3D printed object. deactivate the build material distributor to interrupt printing of the 3D printed object, printing being interrupted to place the component; activate the heat source to, during the interruption in printing, maintain a temperature of fused portions of a partially printed 3D object between a solidification temperature and a melting temperature for the build material; control the placement device to place a component on a layer of the 3D printed object ; deactivate the heat source ; and re-activate the build material distributor to resume printing of the 3D printed object.
Long-range optical device , in particular a telescopic sight, comprising crosshairs with adjustable positioning and an associated mechanism for adjusting the crosshairs , characterised in that - a ring-type or ring-shaped first magnetic element , in particular in the form of a ring magnet, - a rod-type or rod-shaped second magnetic element motion-coupled to the crosshairs , in particular in the form of a bar magnet, wherein the second magnetic element is arranged to be movable relative to the first magnetic element , wherein in the first and in the second magnetic element , one magnetic characteristic, respectively, which can be adjusted in dependency on the relative position between the first and second magnetic element , in particular an adjustable magnetic field, can be or is formed, - a detection device arranged for detecting a change taking place in the magnetic characteristic, which can be or is formed in the first or second magnetic element , in each case dependent on the relative position between the first and second magnetic element , - a monitoring device , which is arranged for measuring data of the crosshairs to identify the position of the crosshairs based on a magnetic characteristic of the first and second magnetic element , being detected by the detection device , or based on a detected change in the magnetic characteristic of the first and second magnetic element . - a ring-type or ring-shaped first magnetic element , in particular in the form of a ring magnet, - a rod-type or rod-shaped second magnetic element motion-coupled to the crosshairs , in particular in the form of a bar magnet, wherein the second magnetic element is arranged to be movable relative to the first magnetic element , wherein in the first and in the second magnetic element , one magnetic characteristic, respectively, which can be adjusted in dependency on the relative position between the first and second magnetic element , in particular an adjustable magnetic field, can be or is formed, - a detection device arranged for detecting a change taking place in the magnetic characteristic, which can be or is formed in the first or second magnetic element , in each case dependent on the relative position between the first and second magnetic element , - a monitoring device , which is arranged for measuring data of the crosshairs to identify the position of the crosshairs based on a magnetic characteristic of the first and second magnetic element , being detected by the detection device , or based on a detected change in the magnetic characteristic of the first and second magnetic element .
Assembly of parts comprising: - a first part provided with a vertical conduit having a lower part and an upper part , - a second part resting on an upper face of the first part and provided with a hole receiving the upper part of the conduit , - a third part having a hole located below and in line with the conduit , and - a fixing rod extending successively into the hole of the second part , into the conduit of the first part and into the hole of the third part , the fastening rod having an upper end provided with a stop resting on an upper face of the second part , and in that the second part has, in the hole , a shoulder against which the upper part of the conduit is folded down so as to clamp the second part between the foldeddown upper part of the conduit and the upper face to fix the second part to the first part . - a first part provided with a vertical conduit having a lower part and an upper part , - a second part resting on an upper face of the first part and provided with a hole receiving the upper part of the conduit , - a third part having a hole located below and in line with the conduit , and - a fixing rod extending successively into the hole of the second part , into the conduit of the first part and into the hole of the third part , the fastening rod having an upper end provided with a stop resting on an upper face of the second part ,
An odour-absorbing composition comprising a mixture of α-, β-, and γ-cyclodextrins, wherein the amount of one of said α-, β-, and γ-cyclodextrins is equal to or higher than the total amount of the other two cyclodextrins.
Method for producing an ultrasound sensor which is designed to detect the filling level of a fluid in an internal combustion engine, wherein the method comprises: - providing an electronics system of the ultrasound sensor , - arranging the electronics system of the ultrasound sensor in an injection moulding die, - encapsulating the electronics system by injection moulding with plastic by means of an injection moulding process for the purpose of forming a housing for the electronics system in such a way that the housing has at least one functional section which is designed to fulfil a predetermined function, characterized in that the at least one functional section has at least one fastening region which is designed as a projection and to which a sound carrying tube can be fastened, and/or has a seal recess which is arranged on an outer side of the housing and is designed to receive at least one seal. - providing an electronics system of the ultrasound sensor , - arranging the electronics system of the ultrasound sensor in an injection moulding die, - encapsulating the electronics system by injection moulding with plastic by means of an injection moulding process for the purpose of forming a housing for the electronics system in such a way that the housing has at least one functional section which is designed to fulfil a predetermined function,