mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling the speed of a motor driving an oil injected compressor, the method comprising at least the following steps: - measuring a working pressure (p w) of the oil injected compressor and sending the measured value to a first module of a controller unit; - sending the speed (rpm) of the motor to said first module; characterised in that the method further comprises the steps of: sending a retrieved or measured ambient temperature (T ambient) to the first module; and - determining a minimum working speed (rpm min) of the motor on the basis of the measured working pressure (p w), ambient temperature (T ambient) and a dew point temperature (T dew point); and - comparing the determined minimum working speed (rpm min) with the retrieved working speed (rpm) of the motor and, if said retrieved working speed (rpm) is lower than the determined minimum working speed (rpm min), increasing the working speed (rpm) of said motor to at least the determined minimum working speed (rpm min). - measuring a working pressure (p w) of the oil injected compressor and sending the measured value to a first module of a controller unit; - sending the speed (rpm) of the motor to said first module; characterised in that the method further comprises the steps of: sending a retrieved or measured ambient temperature (T ambient) to the first module; and - determining a minimum working speed (rpm min) of the motor on the basis of the measured working pressure (p w), ambient temperature (T ambient) and a dew point temperature (T dew point); and - comparing the determined minimum working speed (rpm min) with the retrieved working speed (rpm) of the motor and, if said retrieved working speed (rpm) is lower than the determined minimum working speed (rpm min), increasing the working speed (rpm) of said motor to at least the determined minimum working speed (rpm min).
A virtual gyroscope for an electronic device, comprising: a magnetometer unit comprising logic to: receive first magnetic response data from a first magnetic sensor and second magnetic response data from a second magnetic sensor displaced from the first magnetic sensor; generate a first response surface from the first magnetic response data and a second response surface from the second magnetic response data; generate a composite response surface representation from the first magnetic response data and the second magnetic response data; compare the first response surface and the second response surface to the composite response surface; select, based on the comparison, one of the first magnetic response data or the second magnetic response data as an output of the magnetometer unit; output the selected magnetic response data; an accelerometer unit comprising logic, at least partially including hardware logic, to: generate orientation data for the electronic device; and a combiner unit comprising logic to: combine the output of the magnetometer unit with the orientation data from the accelerometer unit. a magnetometer unit comprising logic to: receive first magnetic response data from a first magnetic sensor and second magnetic response data from a second magnetic sensor displaced from the first magnetic sensor; generate a first response surface from the first magnetic response data and a second response surface from the second magnetic response data; generate a composite response surface representation from the first magnetic response data and the second magnetic response data; compare the first response surface and the second response surface to the composite response surface; select, based on the comparison, one of the first magnetic response data or the second magnetic response data as an output of the magnetometer unit; output the selected magnetic response data; receive first magnetic response data from a first magnetic sensor and second magnetic response data from a second magnetic sensor displaced from the first magnetic sensor; generate a first response surface from the first magnetic response data and a second response surface from the second magnetic response data; generate a composite response surface representation from the first magnetic response data and the second magnetic response data; compare the first response surface and the second response surface to the composite response surface; select, based on the comparison, one of the first magnetic response data or the second magnetic response data as an output of the magnetometer unit; output the selected magnetic response data; an accelerometer unit comprising logic, at least partially including hardware logic, to: generate orientation data for the electronic device; and a combiner unit comprising logic to: combine the output of the magnetometer unit with the orientation data from the accelerometer unit.
An optical sensor for detecting objects in a monitoring area, having at least one transmitter which has an optical axis and emits light beams, and having at least one receiver which has an optical axis and is designed to receive light beams, wherein the transmitter and the receiver are each assigned a tube whose longitudinal axis extends in the direction of the optical axis of the transmitter or receiver, wherein the tube consists of a plurality of tube elements (12a, 12b), which can be joined to the tube transversely to the optical axis, and wherein the tube forms element planes, in each of which an optical element is present, wherein the tube has element planes in the form of lens planes, in each of which a lens (17a to c) is present, wherein each lens (17a to c) is a plastic injection-moulded part and is inserted into the tube, wherein the lenses are connected via flexible webs (18a, 18b) which form the plastic injection-moulded part with the lenses (17a to c), characterised in that the flexible webs are formed in the form of film joints.
Device for equalizing a pressure difference for an aircraft, comprising - a planar separating wall which is fixed to the aircraft and fluidically separates a first space from a second space, - the separating wall having a flow opening which fluidically connects the first and the second space (2, 3), and - a decompression valve which closes the flow opening, - a securing element on the decompression valve or on the separating wall being designed to enable a release movement of the decompression valve when a predetermined pressure gradient between the first and the second space (2, 3) is exceeded, such that there is a fluidic connection between the first and the second space (2, 3), - a receiving element being provided on the separating wall or on the decompression valve, to which receiving element the securing element is operatively connected, wherein - the securing element comprises a rotary element and at least two fixing elements, - the rotary element being rotatably mounted about a rotational shaft, - the rotary element being provided to be received in the receiving element, - the fixing elements non-rotatably fixing the rotary element beneath the predetermined pressure gradient in a fixing position and - at least one of the at least two fixing elements being a spring element, characterized in that - the at least one spring element is a planar flexural spring element. - a planar separating wall which is fixed to the aircraft and fluidically separates a first space from a second space, - the separating wall having a flow opening which fluidically connects the first and the second space (2, 3), and - a decompression valve which closes the flow opening, - a securing element on the decompression valve or on the separating wall being designed to enable a release movement of the decompression valve when a predetermined pressure gradient between the first and the second space (2, 3) is exceeded, such that there is a fluidic connection between the first and the second space (2, 3), - a receiving element being provided on the separating wall or on the decompression valve, to which receiving element the securing element is operatively connected, wherein - the securing element comprises a rotary element and at least two fixing elements, - the rotary element being rotatably mounted about a rotational shaft, - the rotary element being provided to be received in the receiving element, - the fixing elements non-rotatably fixing the rotary element beneath the predetermined pressure gradient in a fixing position and - at least one of the at least two fixing elements being a spring element, characterized in that - the at least one spring element is a planar flexural spring element.
A method of extracting and refining cuticular wax from plant material, said method comprising the steps of a. providing plant material comprising cuticular wax, b. disassociating cuticular wax from said plant material provided in step (a) by subjecting said plant material to a dry mechanical treatment and suspending the dry mechanically treated material, or a fraction thereof, in an aqueous solution comprising protease and/or pectinase enzymes, thereby obtaining a sample comprising plant derived cuticular wax and dewaxed plant material in an aqueous suspension, c. solubilizing said plant derived cuticular wax by increasing the temperature of the sample obtained in step (b) to a temperature greater than the melting point of said plant derived cuticular wax, d. separating the suspension obtained in step (c) into a solid fraction and a liquid fraction, wherein said liquid fraction comprises melted plant derived cuticular wax, e. adjusting the pH and temperature of the liquid fraction from step (d) to pH 5.5 or lower and 50°C or lower, respectively, f. separating the mixture obtained in step (e) into a waxy fraction and an aqueous fraction, g. recovering plant derived cuticular wax from said waxy fraction from step (f). a. providing plant material comprising cuticular wax, b. disassociating cuticular wax from said plant material provided in step (a) by subjecting said plant material to a dry mechanical treatment and suspending the dry mechanically treated material, or a fraction thereof, in an aqueous solution comprising protease and/or pectinase enzymes, thereby obtaining a sample comprising plant derived cuticular wax and dewaxed plant material in an aqueous suspension, c. solubilizing said plant derived cuticular wax by increasing the temperature of the sample obtained in step (b) to a temperature greater than the melting point of said plant derived cuticular wax, d. separating the suspension obtained in step (c) into a solid fraction and a liquid fraction, wherein said liquid fraction comprises melted plant derived cuticular wax, e. adjusting the pH and temperature of the liquid fraction from step (d) to pH 5.5 or lower and 50°C or lower, respectively, f. separating the mixture obtained in step (e) into a waxy fraction and an aqueous fraction, g. recovering plant derived cuticular wax from said waxy fraction from step (f).
An information processing system comprising: a detector configured to detect cessation of an input into a first input form by a user; a generator configured to: generate, in response to a request for the first input form received after the detection of the cessation of input into the first input form, a second input form having an input condition relaxed relative to that of the first input form, when the request for the first input form is determined to originate from the user; and transmit the second input form to the user in response to a request from the user. a detector configured to detect cessation of an input into a first input form by a user; a generator configured to: generate, in response to a request for the first input form received after the detection of the cessation of input into the first input form, a second input form having an input condition relaxed relative to that of the first input form, when the request for the first input form is determined to originate from the user; and transmit the second input form to the user in response to a request from the user. generate, in response to a request for the first input form received after the detection of the cessation of input into the first input form, a second input form having an input condition relaxed relative to that of the first input form, when the request for the first input form is determined to originate from the user; and transmit the second input form to the user in response to a request from the user.
Adjusting device for adjusting a first part relative to a second part, wherein the first part has a slot in which there engages an eccentric screw which is supported in the second part, with the result that the first part is adjusted by rotating the eccentric screw, and at least one stop is provided in the slot and prevents a movement of the first part relative to the second part, wherein the at least one stop can be pressed in the direction of the second part, with the result that the at least one stop comes out of engagement with the slot and the first part can be adjusted relative to the second part, characterized in that the at least one stop has, at least on the side facing the second part, at least one wedge surface which extends towards the end of the slot towards the second part.
A container raising/lowering conveyance apparatus that is configured to peripherally grip and raise and lower an article-conveying container with a right-angled parallelogram planar shape, the container raising/lowering conveyance apparatus comprising four gripping raising/lowering bodies (45a to 46b), respectively corresponding to four corners of the container, and the container raising/lowering conveyance apparatus having a configuration where the respective gripping raising/lowering bodies (45a to 46b) are rod-shaped bodies, each being elongated in a raising/lowering direction and including a fitting portion of angle-shaped transverse section capable of being fitted to a container corner, and are supported by a supporting structure so as to be capable of being raised and lowered and capable of being respectively horizontally fitted to and detached from the four corners of the container, characterized in that the container raising/lowering conveyance apparatus also comprises at least two lifting raising/lowering bodies (65A and 65B) respectively corresponding to two parallel side surfaces of the container, and wherein each of the lifting raising/lowering bodies (65A and 65B) has a rod-shaped main body, which is elongated in the raising/lowering direction, provided with a supporting implement (76a or 76b) configured to protrude towards the container and has the rod-shaped main body supported by the supporting structure so as to be capable of being raised and lowered and capable of horizontally moving closer to and away from a side surface of the container, and the supporting implements (76a or 76b) are configured to be inserted underneath a protruding portion, such as a flange portion (F1, F2), at container side surfaces upon being moved closer to the container side surfaces and to lift the container via the protruding portion (flange portion (F1, F2)) when the rod-shaped main bodies are raised.
A processing system comprising: a tensioner with a vacuum plate configured to provide tension on a flexible substrate as the flexible substrate is transported over the vacuum plate along a transport direction, said vacuum plate being configured to be moved along the transport direction; an indexer configured to intermittently move the flexible substrate for processing; and a controller configured to control the tensioner and the indexer so that a relative speed between the indexer and the vacuum plate of the tensioner is maintained above a predefined threshold under all working conditions, even when the flexible substrate is stopped. a tensioner with a vacuum plate configured to provide tension on a flexible substrate as the flexible substrate is transported over the vacuum plate along a transport direction, said vacuum plate being configured to be moved along the transport direction; an indexer configured to intermittently move the flexible substrate for processing; and a controller configured to control the tensioner and the indexer so that a relative speed between the indexer and the vacuum plate of the tensioner is maintained above a predefined threshold under all working conditions, even when the flexible substrate is stopped.
Exhaust gas treatment arrangement, in particular for an exhaust gas flow path of a combustion engine, comprising a tubular carrier body extending along a carrier longitudinal axis with a first axial end region and a second axial end region and at least one exhaust gas treatment element carried in said carrier body with an intermediate positioning of at least one fiber material layer, wherein said carrier body comprises carrier elements (14, 16) interconnected in a first connection region and a second connection region, wherein the first connection region and the second connection region extend from the first axial end region to the second axial end region, characterized in that at least one connection region (22, 24) extends from the first axial end region to the second axial end region not parallel to the carrier longitudinal axis.
Use of a water-dispersible composition for colouring an edible or pharmaceutical product, wherein the water-dispersible composition is:: A water-dispersible composition comprising at least one hydrophilic or hydrophobic, water-insoluble solid pigment and at least 5 wt% of at least one starch octenyl succinate derivative as a hydrocolloid; and wherein: the hydrophilic, water-insoluble solid pigment is selected from the group consisting of metal chelates of carminic acid, curcumin, and chlorophyllin; and the hydrophobic, water-insoluble solid pigment is selected from the group consisting of saffron, crocin, rubixanthin, violaxanthin and rhodoxanthin; and wherein the solid pigment has an average particle diameter of less than 10 μm; and wherein:: The water-dispersible composition is obtained by a method for preparing the water-dispersible composition comprising the preparation of a suspension of a hydrophilic or hydrophobic, water-insoluble solid pigment by comminuting the solid pigment in an aqueous media in the presence of at least 5 wt% of at least one starch octenyl succinate derivative as a hydrocolloid and whereby the suspension is prepared without the use of an organic solvent.: A water-dispersible composition comprising at least one hydrophilic or hydrophobic, water-insoluble solid pigment and at least 5 wt% of at least one starch octenyl succinate derivative as a hydrocolloid; and wherein: the hydrophilic, water-insoluble solid pigment is selected from the group consisting of metal chelates of carminic acid, curcumin, and chlorophyllin; and the hydrophobic, water-insoluble solid pigment is selected from the group consisting of saffron, crocin, rubixanthin, violaxanthin and rhodoxanthin; and wherein the solid pigment has an average particle diameter of less than 10 μm; and wherein: the hydrophilic, water-insoluble solid pigment is selected from the group consisting of metal chelates of carminic acid, curcumin, and chlorophyllin; and the hydrophobic, water-insoluble solid pigment is selected from the group consisting of saffron, crocin, rubixanthin, violaxanthin and rhodoxanthin; and wherein the solid pigment has an average particle diameter of less than 10 μm; and wherein:: The water-dispersible composition is obtained by a method for preparing the water-dispersible composition comprising the preparation of a suspension of a hydrophilic or hydrophobic, water-insoluble solid pigment by comminuting the solid pigment in an aqueous media in the presence of at least 5 wt% of at least one starch octenyl succinate derivative as a hydrocolloid and whereby the suspension is prepared without the use of an organic solvent.
A neutron capture therapy system, comprising: a neutron beam generating unit, an irradiation room configured to irradiate an irradiated body with a neutron beam, wherein the irradiation room comprises a first shielding wall and a collimator disposed on the first shielding wall for emitting the neutron beam, and wherein the neutron beam is emitted from the collimator and defines a neutron beam axis, a preparation room configured to implement preparation work required to irradiate the irradiated body with the neutron beam, and an auxiliary positioner (6, 6') disposed in the irradiation room, wherein the auxiliary positioner comprises a laser emitter (63, 63') for emitting a laser beam to position the irradiated body, characterized in that the auxiliary positioner is disposed around the collimator and installed on the collimator, and a position of the laser emitter is selectable. a neutron beam generating unit, an irradiation room configured to irradiate an irradiated body with a neutron beam, wherein the irradiation room comprises a first shielding wall and a collimator disposed on the first shielding wall for emitting the neutron beam, and wherein the neutron beam is emitted from the collimator and defines a neutron beam axis, a preparation room configured to implement preparation work required to irradiate the irradiated body with the neutron beam, and an auxiliary positioner (6, 6') disposed in the irradiation room, wherein the auxiliary positioner comprises a laser emitter (63, 63') for emitting a laser beam to position the irradiated body, characterized in that the auxiliary positioner is disposed around the collimator and installed on the collimator, and a position of the laser emitter is selectable.
A platelet collection method comprising: a step of accommodating whole blood collected from a donor in a first chamber and separating the whole blood into a first blood component including a large number of platelets and a remaining component by performing centrifugal separation; a step of transferring the first blood component from the first chamber to a second chamber; a step of separating the first blood component transferred to the second chamber into a platelet-containing component and a second blood component by performing centrifugal separation; a step of transferring the platelet-containing component from the second chamber to a third chamber; a step of separating the platelet-containing component transferred to the third chamber into platelets and another component by performing centrifugal separation; a step of introducing a platelet additive solution into the third chamber and replacing the other component with the platelet additive solution; and a step of collecting the platelets remaining in the third chamber along with the platelet additive solution, characterized in that a centrifugal force differing from a centrifugal force applied to the first and second chambers (44 and 50) is applied to the third chamber during the centrifugal separation in the third chamber. a step of accommodating whole blood collected from a donor in a first chamber and separating the whole blood into a first blood component including a large number of platelets and a remaining component by performing centrifugal separation; a step of transferring the first blood component from the first chamber to a second chamber; a step of separating the first blood component transferred to the second chamber into a platelet-containing component and a second blood component by performing centrifugal separation; a step of transferring the platelet-containing component from the second chamber to a third chamber; a step of separating the platelet-containing component transferred to the third chamber into platelets and another component by performing centrifugal separation; a step of introducing a platelet additive solution into the third chamber and replacing the other component with the platelet additive solution; and a step of collecting the platelets remaining in the third chamber along with the platelet additive solution, characterized in that a centrifugal force differing from a centrifugal force applied to the first and second chambers (44 and 50) is applied to the third chamber during the centrifugal separation in the third chamber.