mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine comprising a control system, the control system comprising: at least one main controller (217, 220) and a plurality of controllers (208a-j) distributed at positions in the wind turbine, the at least one main controller being coupled to the plurality of controllers; the wind turbine further comprises a plurality of data storage units (218a-j), each data storage unit being distributed in the wind turbine and arranged at a predetermined position of a controller in the wind turbine, the data storage unit being coupled to the controller arranged at the same position; wherein each data storage unit comprises operational information pertaining to the predetermined position in the wind turbine, and wherein each controller is configured to read the operational information of the coupled data storage unit and to determine its function from the operational information; wherein the at least one main controller is configured to determine if the plurality of controllers have the correct hardware and software configuration based on hardware and software configuration information received from the plurality of controllers and the operational information received from the corresponding data storage units; wherein the at least one main controller is further configured to prevent start-up of the wind turbine and to provide a warning signal when it is determined that at least one of the plurality of controllers has one or both of the wrong hardware configuration and the wrong software configuration, at least one of the plurality of controllers is arranged at a wrong position in the wind turbine or at least one of the plurality of controllers receives the wrong operational information from the corresponding data storage unit. at least one main controller (217, 220) and a plurality of controllers (208a-j) distributed at positions in the wind turbine, the at least one main controller being coupled to the plurality of controllers; the wind turbine further comprises a plurality of data storage units (218a-j), each data storage unit being distributed in the wind turbine and arranged at a predetermined position of a controller in the wind turbine, the data storage unit being coupled to the controller arranged at the same position; wherein each data storage unit comprises operational information pertaining to the predetermined position in the wind turbine, and wherein each controller is configured to read the operational information of the coupled data storage unit and to determine its function from the operational information;
A power generating arrangement for a vehicle, the power generating arrangement comprising: - a power generator configured to contain a fluid in liquid, humid and/or moisturized form, and - a housing comprising an upward facing side and a downward facing side, wherein the power generator is arranged in the housing, the housing comprising an outlet configured to drain the fluid, wherein the outlet is arranged at the downward facing side, characterized in that the power generating arrangement further comprises: - a supporting structure comprising a first pivot joint rotatable about a first geometric rotation axis, and a second pivot joint rotatable about a second geometric rotation axis, wherein the first and second geometric rotation axes are non-parallel to each other, the supporting structure being connectable to a frame structure of the vehicle at the first pivot joint, wherein the housing is rotatably connected to the supporting structure, and wherein a center of gravity of the power generator is arranged between at least one of the first and second geometric rotation axes and the downward facing side of the housing. - a power generator configured to contain a fluid in liquid, humid and/or moisturized form, and - a housing comprising an upward facing side and a downward facing side, wherein the power generator is arranged in the housing, the housing comprising an outlet configured to drain the fluid, wherein the outlet is arranged at the downward facing side, characterized in that the power generating arrangement further comprises: - a supporting structure comprising a first pivot joint rotatable about a first geometric rotation axis, and a second pivot joint rotatable about a second geometric rotation axis, wherein the first and second geometric rotation axes are non-parallel to each other, the supporting structure being connectable to a frame structure of the vehicle at the first pivot joint,
A rollback prevention control device (8,SV05) on an electrically driven vehicle, wherein (i) the vehicle is capable of traveling by transmitting driving force from a rotation electric machine to wheels (1L, 1R, 2L, 2R) and (ii) the wheels (1L, 1R, 2L, 2R) are capable of being braked by regenerative braking associated with electric generation of the rotation electric machine and a frictional braking on an as required basis, comprising: - a charging restriction detecting unit that is configured to detect when charging from the rotation electric machine is being prohibited; - an accelerator operation detecting unit that is configured to detect an accelerator operation of a driver of the electrically driven vehicle; - a vehicle rollback detecting unit that is configured to detect that the vehicle rolls back in a direction opposite to an acceleration direction when the accelerator operation detecting unit has detected the accelerator operation; and - a frictional braking control unit (SB-06, SV-10) that it is configured to cause the frictional braking to occur and to control the frictional braking force (TPMC) to increase at constant rate of change in accordance with an increase of the accelerator operation when the accelerator operation detecting unit and the vehicle rollback detecting unit detect the vehicle rollback at the accelerator operation and the charging restriction detecting unit detects prohibition of charging operation, wherein, when charging from the rotation electric machine is not prohibited, regenerative braking is used. (i) the vehicle is capable of traveling by transmitting driving force from a rotation electric machine to wheels (1L, 1R, 2L, 2R) and (ii) the wheels (1L, 1R, 2L, 2R) are capable of being braked by regenerative braking associated with electric generation of the rotation electric machine and a frictional braking on an as required basis, - a charging restriction detecting unit that is configured to detect when charging from the rotation electric machine is being prohibited; - an accelerator operation detecting unit that is configured to detect an accelerator operation of a driver of the electrically driven vehicle; - a vehicle rollback detecting unit that is configured to detect that the vehicle rolls back in a direction opposite to an acceleration direction when the accelerator operation detecting unit has detected the accelerator operation; and - a frictional braking control unit (SB-06, SV-10) that it is configured to cause the frictional braking to occur and to control the frictional braking force (TPMC) to increase at constant rate of change in accordance with an increase of the accelerator operation when the accelerator operation detecting unit and the vehicle rollback detecting unit detect the vehicle rollback at the accelerator operation and the charging restriction detecting unit detects prohibition of charging operation, wherein, when charging from the rotation electric machine is not prohibited, regenerative braking is used.
A bulk material suitable for use in a chewing gum consisting of: a) at least 65 wt. % dry basis solids sorbitol; b) 5 - 20 wt.% dry basis solids maltitol; c) no more than 2 wt. % dry basis solids glycerin; and d) no more than 10 wt. % water; wherein the bulk material is amorphous and has a glass transition temperature between 30 - 80 ° C as measured by differential scanning calorimetry. a) at least 65 wt. % dry basis solids sorbitol; b) 5 - 20 wt.% dry basis solids maltitol; c) no more than 2 wt. % dry basis solids glycerin; and d) no more than 10 wt. % water;
A capacitor component comprising a first busbar, a first electrode and a second electrode separated by a dielectric film, wherein the first electrode, the second electrode and the dielectric film are arranged in a annular ring with the first busbar arranged around the outer circumference of the annular ring, wherein the first busbar is in electrical contact with the first electrode and the first busbar includes a gap in a circumferential portion of the first busbar, characterised in that the gap is formed by a first end of the first busbar and a second end of the first busbar being disconnected to form a C shape.
An apparatus comprising: means for receiving a dataset defining at least one trajectory; means for determining parameters of the dataset; means for generating a profile of the dataset based on the parameters of the dataset to establish a dataset profile; means for identifying a predetermined profile corresponding to the dataset profile, the predetermined profile being stored in a catalog of datasets having profiles and privacy level estimates, the catalog associating the privacy level estimates to anonymization strategies; means for determining an anonymization strategy corresponding to the predetermined profile; means for anonymizing the dataset using the anonymization strategy to generate an anonymized dataset; means for estimating a privacy level of the anonymized dataset based on a privacy level estimate associated with the predetermined profile; and means for publishing the anonymized dataset for use with location-based services. means for receiving a dataset defining at least one trajectory; means for determining parameters of the dataset; means for generating a profile of the dataset based on the parameters of the dataset to establish a dataset profile; means for identifying a predetermined profile corresponding to the dataset profile, the predetermined profile being stored in a catalog of datasets having profiles and privacy level estimates, the catalog associating the privacy level estimates to anonymization strategies; means for determining an anonymization strategy corresponding to the predetermined profile; means for anonymizing the dataset using the anonymization strategy to generate an anonymized dataset; means for estimating a privacy level of the anonymized dataset based on a privacy level estimate associated with the predetermined profile; and means for publishing the anonymized dataset for use with location-based services.
Packaging paper consisting of an unbleached kraft paper with a Kappa number according to ISO 302:2015 of between 38 and 60, preferably between 40 and 58 as base paper, which is optionally coated on at least one side, wherein the kraft paper being made of at least 90% primary pulp, having a basis weight according to ISO 536:2019 of between 60 g/m 2 and 150 g/m 2 and an air resistance according to ISO 5636-5:2013 (Gurley) of between 5 and 30 seconds, characterized in that the primary pulp contained in the base paper comprises at least 80%, preferably at least 85%, in particular at least 88% pulp with an average length-weighted fiber length according to ISO 16065-2:2014 of between 2,0 mm and 2,9 mm and less than 4,5%, preferably less than 4,2%, in particular less than 4,0% fillers as well as cationic starch in an amount of 0,5% by weight to 1,5% by weight of the base paper, in particular 0,5% by weight to 1,4% by weight of the base paper, and contains other processing agents, that the base paper has an elongation at break in machine direction according to ISO 1924-3:2005 of between 2,5% and 8,5%, and in that the packaging paper has a Bendtsen roughness according to ISO 8791-2:2013 of between 70 ml/min and 600 ml/min, preferably between 150 ml/min to 550 ml/min, in particular 200 ml/min to 500 ml/min.
A nebulizing driving apparatus used to drive a piezoelectric material of a nebulizing module, the nebulizing driving apparatus comprising: a driving circuit electrically connected to the piezoelectric material; a control circuit electrically connected to the driving circuit; and a feedback circuit electrically connected to the driving circuit, the control circuit and the piezoelectric material, wherein the feedback circuit detects an electrical data fed back from the piezoelectric material and sends the electrical data to the control circuit when the control circuit is configured to control the driving circuit to drive the piezoelectric material with a driving frequency; according to the electrical data, the control circuit is configured to control the driving circuit to drive the piezoelectric material with a working frequency; characterized in that the driving circuit comprises: a first resistor electrically connected to the piezoelectric material; a first diode electrically connected to the piezoelectric material and the first resistor; and a first transistor electrically connected to the piezoelectric material, the first resistor and the first diode. a driving circuit electrically connected to the piezoelectric material; a control circuit electrically connected to the driving circuit; and a feedback circuit electrically connected to the driving circuit, the control circuit and the piezoelectric material, wherein the feedback circuit detects an electrical data fed back from the piezoelectric material and sends the electrical data to the control circuit when the control circuit is configured to control the driving circuit to drive the piezoelectric material with a driving frequency; according to the electrical data, the control circuit is configured to control the driving circuit to drive the piezoelectric material with a working frequency; characterized in that the driving circuit comprises: a first resistor electrically connected to the piezoelectric material; a first diode electrically connected to the piezoelectric material and the first resistor; and a first transistor electrically connected to the piezoelectric material, the first resistor and the first diode. a first resistor electrically connected to the piezoelectric material; a first diode electrically connected to the piezoelectric material and the first resistor; and a first transistor electrically connected to the piezoelectric material, the first resistor and the first diode.
Use of a mixture comprising a mineral binder (a) and at least one SuperAbsorbent Polymer (b), in order to improve the thermal characteristics of a hardened product intended for the construction industry, by reducing its thermal conductivity λ (W.m -1.K -1), this hardened product being obtained from a dry composition or a hydraulically setting wet formulation comprising this mixture.
A system for a solenoid operated valve, comprising: a valve having an inlet and an outlet; a solenoid coupled with the valve and having a coil; a controller coupled with the solenoid; an environmental sensor coupled with the controller; a power source coupled to the controller; and a database of predetermined adjustments in power to the solenoid depending on environmental conditions; wherein the controller is configured to adjust power to the solenoid by one of the predetermined adjustments in power in the database based on input from the environmental sensor; characterised in that the controller is further configured to count a number of operational cycles of the solenoid and wherein the database contains predetermined adjustments in power to the solenoid depending on the number of operational cycles of the solenoid. a valve having an inlet and an outlet; a solenoid coupled with the valve and having a coil; a controller coupled with the solenoid; an environmental sensor coupled with the controller; a power source coupled to the controller; and a database of predetermined adjustments in power to the solenoid depending on environmental conditions; wherein the controller is configured to adjust power to the solenoid by one of the predetermined adjustments in power in the database based on input from the environmental sensor; characterised in that the controller is further configured to count a number of operational cycles of the solenoid and wherein the database contains predetermined adjustments in power to the solenoid depending on the number of operational cycles of the solenoid.
Sailing vessel comprising a sail and a system for determining characteristics of an incident airflow on a leading edge of the sail by a determination of the positions of stagnation points of the airflow, the system comprising: - series (S1-S5) of pressure sensors arranged on a surface of the sail, the pressure sensors of each series being distributed on either side of the leading edge of the sail, the series (S1-S5) of pressure sensors virtually forming respective patterns (M1-M5) spaced apart from one another, each of the patterns being a simple polygonal line; and - a computer linked to the pressure sensors so as to receive local pressure values originating respectively from the pressure sensors; wherein the computer is configured to determine, along each of the said patterns (M1-M5), a respective stagnation point position, defined by a curvilinear abscissa (a1-a5) defined along the pattern (M1-M5) concerned and for which a pressure P * interpolated from pressure measurements supplied by the pressure sensors of the corresponding series (S1-S5) is maximal along the pattern concerned, and by an altitude (z1-z5), evaluated from respective altitude data of the pressure sensors of the corresponding series (S1-S5) wherein the respective altitude data of the pressure sensors are determined from respective altitudes of the pressure sensors in a fixed reference frame relative to the sailing vessel, and from a variable component determined for each of the pressure sensors, from measurements of orientation of the boat. - series (S1-S5) of pressure sensors arranged on a surface of the sail, the pressure sensors of each series being distributed on either side of the leading edge of the sail, the series (S1-S5) of pressure sensors virtually forming respective patterns (M1-M5) spaced apart from one another, each of the patterns being a simple polygonal line; and - a computer linked to the pressure sensors so as to receive local pressure values originating respectively from the pressure sensors; wherein the computer is configured to determine, along each of the said patterns (M1-M5), a respective stagnation point position, defined by a curvilinear abscissa (a1-a5) defined along the pattern (M1-M5) concerned and for which a pressure P * interpolated from pressure measurements supplied by the pressure sensors of the corresponding series (S1-S5) is maximal along the pattern concerned, and by an altitude (z1-z5), evaluated from respective altitude data of the pressure sensors of the corresponding series (S1-S5) wherein the respective altitude data of the pressure sensors are determined from respective altitudes of the pressure sensors in a fixed reference frame relative to the sailing vessel, and from a variable component determined for each of the pressure sensors, from measurements of orientation of the boat.
A medical device for removal of microvesicles, which comprise an MHC-I antigen or an MHC-II antigen, from whole blood or a component thereof, said device comprising: a) an intake conduit through which whole blood or a component thereof enters; b) an agent capable of binding and removing microvesicles, which comprise an MHC-I antigen or an MHC-II antigen, found within said blood or component thereof, wherein said agent comprises a lectin and said agent is configured for contacting said blood or component thereof; and c) a system for reintroduction of contacted blood or component thereof into a subject, whereby said contacted blood or component thereof is reintroduced under physiologically acceptable conditions, said contacted blood or component thereof containing substantially fewer microvesicles, which comprise an MHC-I antigen or an MHC-II antigen, compared to the whole blood or component thereof that enters into the intake conduit; and d) an additional agent capable of binding microvesicles selected from a group consisting of: a) an antibody; b) a protein; c) an aptamer; d) a surface that selectively restricts microvesicles from passage, and e) a surface with selective adhesion to microvesicles. a) an intake conduit through which whole blood or a component thereof enters; b) an agent capable of binding and removing microvesicles, which comprise an MHC-I antigen or an MHC-II antigen, found within said blood or component thereof, wherein said agent comprises a lectin and said agent is configured for contacting said blood or component thereof; and c) a system for reintroduction of contacted blood or component thereof into a subject, whereby said contacted blood or component thereof is reintroduced under physiologically acceptable conditions, said contacted blood or component thereof containing substantially fewer microvesicles, which comprise an MHC-I antigen or an MHC-II antigen, compared to the whole blood or component thereof that enters into the intake conduit; and d) an additional agent capable of binding microvesicles selected from a group consisting of: a) an antibody; b) a protein; c) an aptamer; d) a surface that selectively restricts microvesicles from passage, and e) a surface with selective adhesion to microvesicles.
Device for heating preform bodies composed of thermoplastic material for application in blow moulding or thermoforming, comprising a main body (1.0) and a further main body (2.0), on the surface of which is formed at least one first layer (1.1, 2.1) having a plurality of electrical heating resistors in the form of conductor loops arranged in a planar/plane geometric fashion, wherein the main bodies (1.0, 2.0) furthermore have contact elements via which the heating resistors are connectable to a power source (1.2, 2.2) and the electrical heating resistors are formed from a doped ceramic material, polymer material or with an electrically conductive metal layer or oxide layer and are applied on an electrically insulating carrier layer, which is electrically insulated on a side facing the main body (1.0, 2.0), and the electrical heating resistors have a thickness in the range of 1 μm to 100 μm and a width in the range of 0.001 mm to 5 mm and a plurality of heating resistors are each individually controllable, wherein a defined temperature profile with a locally differentiated temperature distribution is able to be generated and is able to be transferred to the preform body via an outer contact layer (1.3, 2.3) formed on the first layer (1.1, 2.1), and wherein the outer contact layer (1.3, 2.3) corresponds to at least one partial region of the surface of the preform body, characterized in that at least the main bodies (1.0, 2.0) are formed from a ceramic material and electrically conductive connections are achieved by means of plated-through holes in the material.