mhurhangee/ep-ind-claims huggingface dataset:
A powertrain system for a hybrid type vehicle with a thermal engine, notably of internal-combustion type, an electric machine connected to an axle shaft of the vehicle and a transmission device comprising a primary transmission shaft connected to drive shaft of thermal engine through a disengageable coupling and carrying at least two first gear wheels (56, 58) cooperating with at least two second gear wheels (60, 62) carried by a secondary transmission shaft connected to the axle shaft, primary transmission shaft being connected to an auxiliary electric machine, characterized in that one of transmission shafts (18, 40) comprises two half shafts (18a, 18b; 40a, 40b) connected to each other by a one-way coupling (90, 96).
A carbon fiber wherein the surface of a monofilament has a center line average roughness Ra of 6.0 nm or more and 13 nm or less, and the monofilament has a long diameter/short diameter ratio of 1.11 or more and 1.245 or less.
Magnetic field sensor having a device housing which has at least a first housing part and a second housing part closing the first housing part, characterized in that the first housing part and the second housing part are joined in the direction of a longitudinal axis of the device housing and connected by means of a nonreleasable jointed connection, wherein the first housing part and the second housing part each have a corresponding corrugation contour (8, 10), wherein the corrugation contours (8, 10) are formed in the direction of the longitudinal axis of the device housing and on a housing edge of the first housing part and on a housing edge of the second housing part, respectively, and form a jointed corrugation contour in the jointed connection, wherein the jointed corrugation contour runs around the device housing on an outer side of the device housing, and wherein the corrugation contour on the first housing part and the corrugation contour on the second housing part each form a crown structure on the respective housing part (2, 4), wherein, correspondingly, the jointed corrugation contour also forms a crown structure.
A method of forming a coating having a smooth outside surface of glazed appearance on a substrate of ceramic matrix composite material containing silicon carbide, the method being characterized in that it comprises: depositing a refractory cement paste on a surface of the substrate, the paste being formed by a powder mainly constituted by silica and alumina and mixed with a liquid, the cement paste filling in the hollow portions in relief of the surface in order to reduce its irregularities and covering the entire surface of the substrate; performing heat treatment to harden the cement after it has set so as to obtain a first coating layer of refractory cement; depositing a slip on the first coating layer, the slip being formed of a glass frit in suspension in a liquid, the glass frit being mainly constituted by a powder of silica, boron oxide, alumina, and at least one alkali metal oxide; and performing heat treatment for glazing by softening and spreading the glass in order to obtain a second coating layer forming a glaze covering the first coating layer; the composition of the glass frit being selected to form a glass having a melting temperature lower than 1100°C and a glass transition temperature lower than 750°C. depositing a refractory cement paste on a surface of the substrate, the paste being formed by a powder mainly constituted by silica and alumina and mixed with a liquid, the cement paste filling in the hollow portions in relief of the surface in order to reduce its irregularities and covering the entire surface of the substrate; performing heat treatment to harden the cement after it has set so as to obtain a first coating layer of refractory cement; depositing a slip on the first coating layer, the slip being formed of a glass frit in suspension in a liquid, the glass frit being mainly constituted by a powder of silica, boron oxide, alumina, and at least one alkali metal oxide; and performing heat treatment for glazing by softening and spreading the glass in order to obtain a second coating layer forming a glaze covering the first coating layer;
A computer-implemented method comprising: receiving, by a supervisor component executing at a computing device, a request to execute an application; responsive to determining that an application container (202A, 202B, 202C) for maintaining installable sub-packages of the application is allocated in memory of the computing device: determining, by a container runtime of the application container (202A, 202B, 202C), a current user of the computing device; determining, by the container runtime, a reset state of the application; and generating, by the container runtime and based on the current user of the computing device, the reset state, and an application identifier for the application, a unique identifier that does not include personally identifiable information for the current user; sending, by the computing device and to an application service provider, the unique identifier and one or more requests for information; and responsive to sending the one or more request for information, receiving, by the computing device and from the application service provider, state information associated with the current user and for the application. receiving, by a supervisor component executing at a computing device, a request to execute an application; responsive to determining that an application container (202A, 202B, 202C) for maintaining installable sub-packages of the application is allocated in memory of the computing device: determining, by a container runtime of the application container (202A, 202B, 202C), a current user of the computing device; determining, by the container runtime, a reset state of the application; and generating, by the container runtime and based on the current user of the computing device, the reset state, and an application identifier for the application, a unique identifier that does not include personally identifiable information for the current user; sending, by the computing device and to an application service provider, the unique identifier and one or more requests for information; and responsive to sending the one or more request for information, receiving, by the computing device and from the application service provider, state information associated with the current user and for the application. determining, by a container runtime of the application container (202A, 202B, 202C), a current user of the computing device; determining, by the container runtime, a reset state of the application; and generating, by the container runtime and based on the current user of the computing device, the reset state, and an application identifier for the application, a unique identifier that does not include personally identifiable information for the current user; sending, by the computing device and to an application service provider, the unique identifier and one or more requests for information; and responsive to sending the one or more request for information, receiving, by the computing device and from the application service provider, state information associated with the current user and for the application.
A method for processing a user identity, comprising the following steps: selecting data of a user identity field from test data as positive sample data, and selecting data of a non-user identity field as negative sample data; calculating a feature of the positive sample data and a feature of the negative sample data; extracting a range of the feature for the user identity by comparing the feature of the positive sample data and the feature of the negative sample data; establishing a feature rule of the user identity which includes the range of the feature; scanning a source data table to obtain a feature of data corresponding to each field of the source data table; matching the feature of the data corresponding to each field with the feature rule of the user identity, if the feature of the data corresponding to the field succeeds in matching the feature rule of the user identity, the data corresponding to the field being the user identity, and if the feature of the data corresponding to the field fails to match the feature rule of the user identity, the data corresponding to the field being not the user identity; and converting the data that corresponds to the field in the source data table and that is the user identity into a third-party user account, and keeping the data that corresponds to the field in the source data table and that is not the user identity unchanged; selecting data of a user identity field from test data as positive sample data, and selecting data of a non-user identity field as negative sample data; calculating a feature of the positive sample data and a feature of the negative sample data; extracting a range of the feature for the user identity by comparing the feature of the positive sample data and the feature of the negative sample data; establishing a feature rule of the user identity which includes the range of the feature; scanning a source data table to obtain a feature of data corresponding to each field of the source data table; matching the feature of the data corresponding to each field with the feature rule of the user identity, if the feature of the data corresponding to the field succeeds in matching the feature rule of the user identity, the data corresponding to the field being the user identity, and if the feature of the data corresponding to the field fails to match the feature rule of the user identity, the data corresponding to the field being not the user identity; and converting the data that corresponds to the field in the source data table and that is the user identity into a third-party user account, and keeping the data that corresponds to the field in the source data table and that is not the user identity unchanged;
Device for dispensing a fluid product comprising a body and a dispensing head provided with a dispensing orifice and axially movable with respect to said body during actuation, said body receiving a vessel containing one or two doses of fluid product, said device comprising an electronic module which comprises a wireless communication module, such as a GSM module and/or a Wi-Fi module and/or a Bluetooth ® module, a geographical location module, such as a GPS module and/or an antenna array, and a power source, such as a battery, characterised in that said device comprises a sensor system (201, 202) for automatically detecting and signalling handling representative of an attempt to use said device, said sensor system comprising at least one first sensor arranged on said dispensing head and at least one second sensor arranged on said body, said sensor system detecting handling representative of an attempt to use said device when said first and second sensors (201, 202) are activated simultaneously, said wireless communication module being designed to make an automatic emergency call to an emergency number when said sensor system (201, 202) detects handling representative of an attempt to use said device.
A method of preparing a multicolored donut, said method comprising the steps of: • providing a first dough having a first color; • providing a second dough having a second color, said second color being visibly different from the first color; • combining a layer of the first dough with a layer of the second dough to produce a layered dough; • folding the layered dough at least one time to prepare a multilayered dough; • cutting dough pieces from the multilayered dough; • cooking the dough pieces, said cooking comprising contacting the dough pieces with hot oil having a temperature in excess of 150°C for at least 3 seconds. • providing a first dough having a first color; • providing a second dough having a second color, said second color being visibly different from the first color; • combining a layer of the first dough with a layer of the second dough to produce a layered dough; • folding the layered dough at least one time to prepare a multilayered dough; • cutting dough pieces from the multilayered dough; • cooking the dough pieces, said cooking comprising contacting the dough pieces with hot oil having a temperature in excess of 150°C for at least 3 seconds.
Folding panel (2, 16, 26, 36, 52), - with a visible side (4, 24, 60, 80) and a back side (6, 62, 74), - with a base panel (8, 38), - with a layer that is arranged on the base panel and forms the visible side (4, 24, 60, 80) and - with at least one groove (12, 22, 30, 44) configured in the base panel (8, 38), - wherein the layer is configured such that it has a hinge function in the region of the groove and - wherein the panel can be folded along the groove, characterised in that - the layer consists of a paint layer (18, 40), which consists of a long-lasting elastic paint. - with a visible side (4, 24, 60, 80) and a back side (6, 62, 74), - with a base panel (8, 38), - with a layer that is arranged on the base panel and forms the visible side (4, 24, 60, 80) and - with at least one groove (12, 22, 30, 44) configured in the base panel (8, 38), - wherein the layer is configured such that it has a hinge function in the region of the groove and - wherein the panel can be folded along the groove, characterised in that - the layer consists of a paint layer (18, 40), which consists of a long-lasting elastic paint.
A rotary encoder, comprising: a housing, a shaft, wherein the shaft has an abutment on the shaft, a resilient element (7, 17, 19), a code disk which is attached to the shaft, and a reading head which is configured to detect the rotation of the code disk, characterized in that the code disk is affixed in an axial position on one axial side by the abutment on the shaft and the resilient element (7, 17, 19) is arranged on another axial side of the code disk and provides a clamping force with which the code disk is pressed against the abutment. a housing, a shaft, wherein the shaft has an abutment on the shaft, a resilient element (7, 17, 19), a code disk which is attached to the shaft, and a reading head which is configured to detect the rotation of the code disk, characterized in that the code disk is affixed in an axial position on one axial side by the abutment on the shaft and the resilient element (7, 17, 19) is arranged on another axial side of the code disk and provides a clamping force with which the code disk is pressed against the abutment.
Ballastless track for rail vehicles having a rescue path, comprising sleepers which are embedded in a track slab and on which rails are mounted, and cover slabs (5, 6, 7) which are arranged between and next to the rails and form the rescue path, wherein a sleeper bay delimited by adjacent rails and adjacent sleepers is covered by a plurality of small-sized cover slabs (6, 7), characterized in that the cover slabs (6, 7) have a substantially triangular basic shape and two cover slabs (6, 7) are arranged in such a way that they form a rectangle covering the sleeper bay, wherein a common edge of the cover slabs (6, 7) that runs obliquely with respect to the rails and the sleepers extends from a corner portion of the cover slab that serves as a bearing point to a corner portion of the cover slab that serves as a bearing point.
Method for Channel State Information estimation in a wireless network, the wireless network comprising at least one base station, the at least one base station comprising a Large Scalable Antenna System comprising multiple antenna elements, the method comprising the steps: - partitioning the Large Scalable Antenna System antenna elements in sub-arrays such that the antenna elements are divided into mutually exclusive subsets; - generating precoding vectors for each sub-array such that the antenna beams of the sub-arrays point to different directions, - receiving at least one uplink pilot sequence by at least one antenna sub-array, and - estimate a Channel State Information for the at least one antenna sub-array based on the received pilot sequence. - partitioning the Large Scalable Antenna System antenna elements in sub-arrays such that the antenna elements are divided into mutually exclusive subsets; - generating precoding vectors for each sub-array such that the antenna beams of the sub-arrays point to different directions, - receiving at least one uplink pilot sequence by at least one antenna sub-array, and - estimate a Channel State Information for the at least one antenna sub-array based on the received pilot sequence.
A control device for controlling a driving machine, comprising: a memory configured to store address information published to an external machine, said address information containing logical addresses of variables comprised in a control program of the driving machine; the control device being characterized in comprising: a determining section configured to determine publishing priority levels of the variables comprised in the control program to the external machine in accordance with a predetermined rule; a monitoring section configured to monitor free capacity of the memory; and an address managing section configured to, with respect to one or more public variables that are permitted to be published to the external machine among the variables comprised in the control program, add the one or more public variables and information related to the one or more public variables to the address information in order of the publishing priority levels as long as the free capacity does not fall below a predetermined threshold, said information being added as a node including the logical address of the one or more public variables. a determining section configured to determine publishing priority levels of the variables comprised in the control program to the external machine in accordance with a predetermined rule; a monitoring section configured to monitor free capacity of the memory; and an address managing section configured to, with respect to one or more public variables that are permitted to be published to the external machine among the variables comprised in the control program, add the one or more public variables and information related to the one or more public variables to the address information in order of the publishing priority levels as long as the free capacity does not fall below a predetermined threshold, said information being added as a node including the logical address of the one or more public variables.
A method for treating organic wastewater, comprising a raw sludge removal step for removing raw sludge from organic wastewater, a raw sludge concentration step for concentrating the raw sludge removed from the organic wastewater to a prescribed concentration to obtain concentrated raw sludge, a biological treatment step for biologically treating the organic wastewater from which the raw sludge was removed, an excess sludge separation step for separating excess sludge from the biologically treated organic wastewater, an excess sludge concentration step for concentrating the separated excess sludge to a prescribed concentration to obtain concentrated excess sludge, a sludge mixing step for mixing the concentrated raw sludge and the concentrated excess sludge to obtain mixed sludge, and a methane fermentation treatment step for supplying the mixed sludge to a methane fermentation tank and performing a methane fermentation treatment, wherein the method for treating organic wastewater is characterized by further comprising a sterilization step for heating and sterilizing the concentrated excess sludge incorporated upstream of the sludge mixing step; and a control step for controlling the mixed sludge at a temperature adaptable to methane fermentation by adjusting the temperature to which the concentrated excess sludge is heated in the sterilization step, and the concentration of the concentrated raw sludge in the raw sludge concentration step and the concentration of the concentrated excess sludge in the excess sludge concentration step, and also adjusting the mixture ratio between the concentrated raw sludge and the concentrated excess sludge in the sludge mixing step according to the fluctuations in the amount of raw sludge generated and the amount of the excess sludge generated.
Bracing device, in particular for use in vehicle-body construction in the motor-vehicle industry, having a bracing arm, which is mounted in a pivotable manner in a housing of the bracing device, having a first arresting means, which can be pivoted in a manner corresponding to the pivoting movement of the bracing arm, and having a second arresting means, which is arranged in the pivoting path of the first arresting means and is mounted in the housing, wherein the two arresting means (13, 14) interact in an end position of the bracing arm, wherein, in a region of its end which is directed away from the pivot axis of the first arresting means, the first arresting means has, on its side which is directed towards the second arresting means, a recess which is bounded laterally by two protrusions, wherein the second arresting means, when the bracing arm is being pivoted into its end position, contacts the protrusions and, in the end position, is retracted into the recess, wherein the first arresting means has a first portion, which accommodates the one first protrusion, and a second portion, which accommodates the second protrusion, characterized in that, when the second arresting means is acting on the two protrusions, the two portions (28, 29) can be moved in relation to one another counter to a spring force, the distance between the protrusions increasing in the process.
An encased mousse-form solid food comprising: a container with an opening; a mousse-form solid body contained inside the container; a viscous liquid contained inside the container and covering a circumference of the mousse-form solid body; and a lid attached to the opening of the container, wherein the mousse-form solid body has a hardness of 1.0×10 4 N/m 2 or more and 5.0×10 4 N/m 2 or less, and the viscous liquid has a viscosity of 0.5 Pa·s or more and 10.0 Pa·s or less, and wherein, where the viscosity of the viscous liquid is denoted by T [Pa·s], and the hardness of the mousse-form solid body is expressed by H×10 4 [N/m 2], a following formula is satisfied within a range of 1.0≤H≤2.0, T ≥ − H + 2.5 or a following formula is satisfied within a range of 2.0<H≤5.0, T ≥ 0.5 ⋅ a container with an opening; a mousse-form solid body contained inside the container; a viscous liquid contained inside the container and covering a circumference of the mousse-form solid body; and a lid attached to the opening of the container, wherein the mousse-form solid body has a hardness of 1.0×10 4 N/m 2 or more and 5.0×10 4 N/m 2 or less, and the viscous liquid has a viscosity of 0.5 Pa·s or more and 10.0 Pa·s or less, and wherein, where the viscosity of the viscous liquid is denoted by T [Pa·s], and the hardness of the mousse-form solid body is expressed by H×10 4 [N/m 2], a following formula is satisfied within a range of 1.0≤H≤2.0, T ≥ − H + 2.5 or a following formula is satisfied within a range of 2.0<H≤5.0, T ≥ 0.5 ⋅