mhurhangee/patent-ind-claim-en huggingface dataset:
A direct-contact single-phase fluid-based cooling module for fluidly cooling an electronic component that is mounted to a printed circuit board, PCB , the cooling module comprising: a manifold comprising a fluid inlet that is fluidly coupled to a fluid outlet , wherein the manifold is configured to be removably coupled to the PCB ; manifold mounting structures that are configured to removably couple the manifold to the PCB ; and a separable fluid-tight seal between the manifold and a surface of the electronic component ; wherein when a fluid is passed through the manifold the fluid directly contacts the electronic component , wherein the manifold further comprises a fluid plenum that fluidly couples the fluid inlet and the fluid outlet , and wherein fluid in the fluid plenum contacts the surface of the electronic component , wherein the manifold further comprises a nozzle plate that defines a plurality of orifices that are configured to create jets that are directed at the surface of the electronic component , characterized in that orifices of the plurality of orifices are configured non-uniformly across the nozzle plate , to provide more effective cooling for reduction of temperature gradients in the electronic component . a manifold comprising a fluid inlet that is fluidly coupled to a fluid outlet , wherein the manifold is configured to be removably coupled to the PCB ; manifold mounting structures that are configured to removably couple the manifold to the PCB ; and a separable fluid-tight seal between the manifold and a surface of the electronic component ; wherein when a fluid is passed through the manifold the fluid directly contacts the electronic component , wherein the manifold further comprises a fluid plenum that fluidly couples the fluid inlet and the fluid outlet , and wherein fluid in the fluid plenum contacts the surface of the electronic component , wherein the manifold further comprises a nozzle plate that defines a plurality of orifices that are configured to create jets that are directed at the surface of the electronic component , characterized in that orifices of the plurality of orifices are configured non-uniformly across the nozzle plate , to provide more effective cooling for reduction of temperature gradients in the electronic component .
Method for producing a resultant test plan for testing a measurement object , wherein at least one dataset is produced by measuring the measurement object , wherein the measurement object or a part of the measurement object is assigned to at least one object class based on data, wherein a test plan assigned to the object class is determined as an object-class-specific test plan, and wherein the resultant test plan is determined in dependence on the object-class-specific test plan, characterized in that measurement information for measuring the measurement object is determined in dependence on the object class, wherein - the measurement information comprises details for a user regarding a suitable measurement according to the specification of the object-class-specific test plan. wherein at least one dataset is produced by measuring the measurement object , wherein the measurement object or a part of the measurement object is assigned to at least one object class based on data, wherein a test plan assigned to the object class is determined as an object-class-specific test plan, and wherein the resultant test plan is determined in dependence on the object-class-specific test plan, characterized in that measurement information for measuring the measurement object is determined in dependence on the object class, wherein - the measurement information comprises details for a user regarding a suitable measurement according to the specification of the object-class-specific test plan. - the measurement information comprises details for a user regarding a suitable measurement according to the specification of the object-class-specific test plan.
Distributor for precision seeder comprising a disc rotatably mounted on a rotation axis for seed selection assisted by a depressurized airflow, the disc separating the seeds from the airflow and having drilling holes distributed over at least one circle located close to its periphery or on its periphery, the distributor comprising a pressurized zone at a pressure higher than the atmospheric pressure or higher than the pressure outside the distributor , characterized in that the pressurized zone covers less than half the volume of the distributor on the seed side.
A MEMS transducer comprising: a flexible membrane ; and at least one variable vent structure (401; 701; 801; 901; 909) wherein said variable vent structure opens to expose an aperture in the flexible membrane having a size that varies with pressure differential across the membrane, wherein at least one said variable vent structure is formed in the flexible membrane and the aperture provides a flow path through the flexible membrane. a flexible membrane ; and at least one variable vent structure (401; 701; 801; 901; 909) wherein said variable vent structure opens to expose an aperture in the flexible membrane having a size that varies with pressure differential across the membrane, wherein at least one said variable vent structure is formed in the flexible membrane and the aperture provides a flow path through the flexible membrane.
Method for the production of a print job by means of sequential or quasi-sequential digital printing, wherein the signatures and/or individual sheets produced by the digital printing form at least one stack, the component parts of which are transferred by at least one further processing unit at least to one printed product, wherein the formation of the stack and its component parts is carried out by production-based data or datasets which, via at least one workflow system , firstly predefine a specific order of the individual printed products formed by the stack , and which, secondly, control the configuration of the individual printed products with the same or different thickness and/or format and/or with the same or individual contents, characterized in that the workflow system is directly or quasi-directly or indirectly in operative effective connection with at least one of the following aggregates, namely: - with at least one prepress stage ; - with at least one digital printing machine ; - with at least one editor ; - with at least one print manager ; - with at least one line controller ; - with all the processing machines (1, 3-8) operating upstream and downstream of the digital printing machine , and in that at least the aggregates comprising the workflow system , prepress stage , printing material web , digital printing machine , further processing machines (3-8) operate individually or interdependently relative to one another with control lines to the aggregates and with control information from the aggregates. - with at least one prepress stage ; - with at least one digital printing machine ; - with at least one editor ; - with at least one print manager ; - with at least one line controller ; - with all the processing machines (1, 3-8) operating upstream and downstream of the digital printing machine ,
A water-based inkjet yellow ink comprising: a yellow pigment (A) having a partial structure represented by general formula , an organic solvent, a basic organic compound, and water, wherein the yellow pigment (A) includes C. I. Pigment Yellow 139 and/or C. I. Pigment Yellow 185, an amount of the yellow pigment (A) is 1 to 10% by mass of a total mass of the water-based inkjet yellow ink, the basic organic compound contains 0.1 to 1.25% by mass of a basic organic compound (B) having a pKa value of 9.5 or less at 25 °C of the total mass of the water-based inkjet yellow ink, and an amount of an organic solvent having a boiling point of 240 °C or higher under 1 atmosphere is 3% by mass or less of the total mass of the water-based inkjet yellow ink, General formula : wherein, general formula has at least one bonding site, and in general formula , X 1 and X 2 represent both = O or both = CR 6 R 7 , or X 1 is = O and X 2 is = NR 8 , each R 1 to R 4 independently represents a hydrogen atom or a halogen atom, R 5 represents a hydrogen atom or a bonding site, and each R 6 to R 8 represents a bonding site. a yellow pigment (A) having a partial structure represented by general formula , an organic solvent, a basic organic compound, and water, wherein the yellow pigment (A) includes C. I. Pigment Yellow 139 and/or C. I. Pigment Yellow 185, an amount of the yellow pigment (A) is 1 to 10% by mass of a total mass of the water-based inkjet yellow ink, the basic organic compound contains 0.1 to 1.25% by mass of a basic organic compound (B) having a pKa value of 9.5 or less at 25 °C of the total mass of the water-based inkjet yellow ink, and an amount of an organic solvent having a boiling point of 240 °C or higher under 1 atmosphere is 3% by mass or less of the total mass of the water-based inkjet yellow ink, General formula : wherein, general formula has at least one bonding site, and in general formula , X 1 and X 2 represent both = O or both = CR 6 R 7 , or X 1 is = O and X 2 is = NR 8 , each R 1 to R 4 independently represents a hydrogen atom or a halogen atom, R 5 represents a hydrogen atom or a bonding site, and each R 6 to R 8 represents a bonding site.
A method for fixing a part on to a surface of a ceramic sanitary ware , characterized in that it comprises the process steps of • applying a glaze layer and providing the part to the surface of the ceramic sanitary ware and • subjecting to kiln application or firing the ceramic sanitary ware along with the part and the glazing layer , wherein the part is fixed on the surface of the ceramic sanitary ware by means of the glazing layer that melts and crystallizes during the kiln application/firing; wherein the part to be fixed on the surface of the ceramic sanitary ware is positioned in at least one hole or on at least one hole made on the surface of the ceramic sanitary ware , said hole on the surface of the ceramic sanitary ware being a stepped hole containing at least one housing in the form of a cavity in which the part to be fixed on the surface of the ceramic sanitary ware is to be positioned. • applying a glaze layer and providing the part to the surface of the ceramic sanitary ware and • subjecting to kiln application or firing the ceramic sanitary ware along with the part and the glazing layer ,
A method for monitoring vehicle operation using operational data acquired during operation of a vehicle , comprising: obtaining, at a processor , data associated with operation of a vehicle , wherein the data includes sensor data from a plurality of sensors onboard the vehicle ; determining, by the processor , a first operational phase of the vehicle based on the data ; identifying, by the processor , a candidate operational phase transition from the first operational phase to a candidate operational phase based on a first portion of the data satisfying a first condition associated with the candidate operational phase, the first portion of the data associated with a first time; after identifying the candidate operational phase transition, evaluating, by the processor , a second portion of the data based on a second condition associated with the candidate operational phase, the second portion of the data associated with a second time that is subsequent to the first time, wherein the second condition is a look-ahead condition based on a parameter value at a time in the future from when the first condition was satisfied; and based on the second condition being satisfied, generating, by the processor , an operational phase transition indication associated with the first time and that indicates an operational phase transition from the first operational phase to the candidate operational phase. obtaining, at a processor , data associated with operation of a vehicle , wherein the data includes sensor data from a plurality of sensors onboard the vehicle ; determining, by the processor , a first operational phase of the vehicle based on the data ; identifying, by the processor , a candidate operational phase transition from the first operational phase to a candidate operational phase based on a first portion of the data satisfying a first condition associated with the candidate operational phase, the first portion of the data associated with a first time; after identifying the candidate operational phase transition, evaluating, by the processor , a second portion of the data based on a second condition associated with the candidate operational phase, the second portion of the data associated with a second time that is subsequent to the first time, wherein the second condition is a look-ahead condition based on a parameter value at a time in the future from when the first condition was satisfied; and based on the second condition being satisfied, generating, by the processor , an operational phase transition indication associated with the first time and that indicates an operational phase transition from the first operational phase to the candidate operational phase.
Method for automatically controlling a following vehicle , in which a leading vehicle is guided along an actual trajectory , a desired trajectory is produced for the following vehicle by a scheduler of the following vehicle , the actual trajectory of the leading vehicle is captured by the following vehicle , a trajectory similarity is determined by comparing the captured actual trajectory of the leading vehicle and the produced desired trajectory of the following vehicle , and automatic control of the following vehicle along the desired trajectory is activated if the trajectory similarity exceeds a particular value, characterized in that a reliability value is determined by the leading vehicle , the reliability value is transmitted to the following vehicle , and the automatic control of the following vehicle is also activated on the basis of the reliability value, wherein the reliability value quantifies the safety of the actual trajectory travelled on by the leading vehicle .
A lighting fixture (10, A1) of a first group (Group A) of lighting fixtures, which is located in the same environment as a second group (Group B) of lighting fixtures, the lighting fixture comprising: • a light source configured to emit light; • an ambient light sensor (S A ); and • circuitry configured to, during a commissioning period: • determine (S100) a reference output level for light emitted from the first group of lighting fixtures; and • during normal operation, the circuitry is configured to: • determine (S106) an actual lighting contribution for light emitted from the second group of lighting fixtures; • reduce (S108) the reference output level by the actual lighting contribution to provide an adjusted reference level; ∘ receive (S110) local dimming information that controls a dimming level for the first group of lighting fixtures; ∘ determine (S112) a target level based on the adjusted reference level and the local dimming information; • monitor the ambient light sensor and regulate (S114) a light output level such that a measurement from the ambient light sensor corresponds to the target level. • a light source configured to emit light; • an ambient light sensor (S A ); and • circuitry configured to, during a commissioning period: • determine (S100) a reference output level for light emitted from the first group of lighting fixtures; and • determine (S100) a reference output level for light emitted from the first group of lighting fixtures; and • during normal operation, the circuitry is configured to: • determine (S106) an actual lighting contribution for light emitted from the second group of lighting fixtures; • reduce (S108) the reference output level by the actual lighting contribution to provide an adjusted reference level; ∘ receive (S110) local dimming information that controls a dimming level for the first group of lighting fixtures; ∘ determine (S112) a target level based on the adjusted reference level and the local dimming information; • monitor the ambient light sensor and regulate (S114) a light output level such that a measurement from the ambient light sensor corresponds to the target level. • determine (S106) an actual lighting contribution for light emitted from the second group of lighting fixtures; • reduce (S108) the reference output level by the actual lighting contribution to provide an adjusted reference level; ∘ receive (S110) local dimming information that controls a dimming level for the first group of lighting fixtures; ∘ determine (S112) a target level based on the adjusted reference level and the local dimming information; ∘ receive (S110) local dimming information that controls a dimming level for the first group of lighting fixtures; ∘ determine (S112) a target level based on the adjusted reference level and the local dimming information; • monitor the ambient light sensor and regulate (S114) a light output level such that a measurement from the ambient light sensor corresponds to the target level.
Process for the production of metal-carbon containing bodies comprising ferromagnetic metal particles encapsulated by graphitic carbon layers, which process comprises impregnating cellulose, cellulose-like or carbohydrate bodies with an aqueous solution of at least one metal compound, followed by heating the impregnated bodies in an inert and oxygen-free atmosphere at a temperature above 700°C, thereby reducing at least part of the at least one metal compound to the corresponding metal or metal alloy, and wherein the metal(s) is (are) selected from iron, nickel, cobalt or alloys thereof.
A method of investigating intrusions on a system or network, the method comprising: receiving forensic facts from a set of forensic events on the system or network, wherein receiving the forensic facts includes extracting action-based forensic events from a digital artefact of the system or network having the set of forensic events, and normalizing properties of the action-based forensic events to a schema to include a record as a forensic fact having a set of properties, wherein the record for a particular forensic fact includes a field indicating a confidence of a correlation to another forensic fact based on an amount of properties that have changed with respect to the another forensic fact and a weight of such properties; identifying a suspicious forensic fact from the forensic facts; and identifying a related forensic fact from the forensic facts based on the set of properties of the suspicious fact. receiving forensic facts from a set of forensic events on the system or network, wherein receiving the forensic facts includes extracting action-based forensic events from a digital artefact of the system or network having the set of forensic events, and normalizing properties of the action-based forensic events to a schema to include a record as a forensic fact having a set of properties, wherein the record for a particular forensic fact includes a field indicating a confidence of a correlation to another forensic fact based on an amount of properties that have changed with respect to the another forensic fact and a weight of such properties; identifying a suspicious forensic fact from the forensic facts; and identifying a related forensic fact from the forensic facts based on the set of properties of the suspicious fact.
A polymer composition comprising: a polycarbonate polymer present in an amount of 20 weight % to 80 weight % relative to the total weight of the polymer composition; a polycarbonate-siloxane copolymer present in an amount of 1 weight % to 20 weight % relative to the total weight of the polymer composition; a reinforcing filler comprising carbon fiber, the reinforcing filler present in an amount of 15 weight % to 35 weight % relative to the total weight of the polymer composition; and a flame retardant present in an amount of 4 weight % to 20 weight % relative to the total weight of the polymer composition, wherein the flame retardant comprises phosphorus, a drip suppressant concentrate comprising polytetrafluoroethylene (PTFE), wherein the combined weight percent value of all components does not exceed 100 wt%; and wherein the polymer composition demonstrates a flexural modulus in an amount equal to or greater than 10 GPa. measured according to the relevant method detailed in the description. a polycarbonate polymer present in an amount of 20 weight % to 80 weight % relative to the total weight of the polymer composition; a polycarbonate-siloxane copolymer present in an amount of 1 weight % to 20 weight % relative to the total weight of the polymer composition; a reinforcing filler comprising carbon fiber, the reinforcing filler present in an amount of 15 weight % to 35 weight % relative to the total weight of the polymer composition; and a flame retardant present in an amount of 4 weight % to 20 weight % relative to the total weight of the polymer composition, wherein the flame retardant comprises phosphorus, a drip suppressant concentrate comprising polytetrafluoroethylene (PTFE), wherein the combined weight percent value of all components does not exceed 100 wt%; and wherein the polymer composition demonstrates a flexural modulus in an amount equal to or greater than 10 GPa. measured according to the relevant method detailed in the description.
Method performed by a vehicle illumination system for controlling the operation of a vehicle illumination unit , said method comprising: - Receiving an initiating signal declaring occurrence of an event - Receiving a first signal from a first detection unit indicating the presence and position of an object or objects (O) in a peripheral area (A tot ) surrounding the vehicle, up on the occurrence of the event characterised in that the method further comprises: - Determining object characteristics: if said object or objects (O) is/are of a first object type (O1) forming a part of a predefined road environment except a person or belonging within a group of obstacles or road irregularities having predefined characteristics, then - Communicating an activation signal to the vehicle illumination unit to illuminate said object or objects (O1) with a light having first light characteristics if the object or objects (O) detected is/are of the first object type (O1), if said object or objects (O) is/are of a second object type (O2) defined as a person, then - Communicating an activation signal to the vehicle illumination unit to illuminate said object or objects (O) with a light having second light characteristics if the object or objects (O) detected is/are of the second object type (O2). - Receiving an initiating signal declaring occurrence of an event - Receiving a first signal from a first detection unit indicating the presence and position of an object or objects (O) in a peripheral area (A tot ) surrounding the vehicle, up on the occurrence of the event characterised in that the method further comprises: - Determining object characteristics: if said object or objects (O) is/are of a first object type (O1) forming a part of a predefined road environment except a person or belonging within a group of obstacles or road irregularities having predefined characteristics, then - Communicating an activation signal to the vehicle illumination unit to illuminate said object or objects (O1) with a light having first light characteristics if the object or objects (O) detected is/are of the first object type (O1), if said object or objects (O) is/are of a second object type (O2) defined as a person, then - Communicating an activation signal to the vehicle illumination unit to illuminate said object or objects (O) with a light having second light characteristics if the object or objects (O) detected is/are of the second object type (O2).