mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a mobile device to provide a Mobile Device Management -MDM-service comprising: transmitting, from a universal MDM client module (170, 270) installed in the mobile device (101, 202), a request for an MDM server to a gateway server, the request including identification information of an enterprise; receiving, in response to the request, information relating to an MDM server corresponding to the identification information of the enterprise from the gateway server; enrolling the mobile device (101, 202) with the MDM server; and installing, in the mobile device (101, 202), an MDM application received from the MDM server. transmitting, from a universal MDM client module (170, 270) installed in the mobile device (101, 202), a request for an MDM server to a gateway server, the request including identification information of an enterprise; receiving, in response to the request, information relating to an MDM server corresponding to the identification information of the enterprise from the gateway server; enrolling the mobile device (101, 202) with the MDM server; and installing, in the mobile device (101, 202), an MDM application received from the MDM server.
Insulation panel configured to serve as a substrate for attaching brick slips, which comprise an undercut longitudinal slot, to a wall, wherein the insulation panel - comprises first integrated anchoring means in the form of one or more anchoring ribs, wherein the anchoring ribs are protruding in use from the insulation panel surface in a direction facing away from the wall; wherein - the anchoring rib is configured for cooperation with the undercut longitudinal slot of a brick slip, wherein the anchoring rib comprises two protruding parts, which two protruding parts are flared surfaces, flared in a direction facing away from the panel; and wherein - the two protruding flared surfaces, flared in the direction facing away from the panel are movable towards each other to allow placement of the brick slip, characterised in that - the at least one anchoring rib comprises at least one longitudinal slot, which is provided in between two flared surfaces in the anchoring rib. - comprises first integrated anchoring means in the form of one or more anchoring ribs, wherein the anchoring ribs are protruding in use from the insulation panel surface in a direction facing away from the wall; wherein - the anchoring rib is configured for cooperation with the undercut longitudinal slot of a brick slip, wherein the anchoring rib comprises two protruding parts, which two protruding parts are flared surfaces, flared in a direction facing away from the panel; and wherein - the two protruding flared surfaces, flared in the direction facing away from the panel are movable towards each other to allow placement of the brick slip,
Shell containing a marking substance or a combination of marking substances for lasting marking of objects, living creatures and/or terrain in a target area and a device for releasing the marking substance or the marking substances depending on the elapsed time since a firing of the shell or the distance to the firing position or the distance to the point of impact of the shell, wherein the marking substance or the combination of marking substances or a quantitative ratio between quantities of the marking substances in the combination has/have at least one associated item of information, characterized in that the item of information is an item of information about the time of firing, the firing position and/or the target area of the shell.
A method comprising: depositing a slurry on a surface of an impregnated porous preform using a cast to form a surface layer including excess material, wherein the cast defines the shape of the surface layer including excess material, and wherein the impregnated porous preform comprises a reinforcement material and at least one ceramic matrix precursor; drying the slurry to form a greenbody preform; removing at least some of the green surface layer including excess material to make it close to the final dimension; infiltrating the greenbody preform with a molten infiltrant to form a ceramic matrix composite article including the surface layer including excess material; and machining the ceramic matrix composite article to remove some of the surface layer including excess material to define a contact surface for contacting another component. depositing a slurry on a surface of an impregnated porous preform using a cast to form a surface layer including excess material, wherein the cast defines the shape of the surface layer including excess material, and wherein the impregnated porous preform comprises a reinforcement material and at least one ceramic matrix precursor; drying the slurry to form a greenbody preform; removing at least some of the green surface layer including excess material to make it close to the final dimension; infiltrating the greenbody preform with a molten infiltrant to form a ceramic matrix composite article including the surface layer including excess material; and machining the ceramic matrix composite article to remove some of the surface layer including excess material to define a contact surface for contacting another component.
A method of calibrating a device that is to be attached to a user and used to monitor the user, the method comprising the steps of: (i) prior to attachment of the device to the user, aligning the device with respect to the user such that the measurement reference frame of the device is substantially aligned with a reference frame of the user and obtaining a first measurement of the orientation of the device with respect to a world reference frame using the device; (ii) after attachment of the device to the user, obtaining a second measurement of the orientation of the device with respect to a world reference frame using the device; and (iii) determining a transformation matrix for use in transforming subsequent measurements obtained by the device into the reference frame of the user, the transformation matrix being calculated using the obtained first and second measurements and information on the amount of rotation of the device relative to the user about a vertical axis in the world reference frame between steps (i) and (ii). (i) prior to attachment of the device to the user, aligning the device with respect to the user such that the measurement reference frame of the device is substantially aligned with a reference frame of the user and obtaining a first measurement of the orientation of the device with respect to a world reference frame using the device; (ii) after attachment of the device to the user, obtaining a second measurement of the orientation of the device with respect to a world reference frame using the device; and (iii) determining a transformation matrix for use in transforming subsequent measurements obtained by the device into the reference frame of the user, the transformation matrix being calculated using the obtained first and second measurements and information on the amount of rotation of the device relative to the user about a vertical axis in the world reference frame between steps (i) and (ii).
A large container comprising: a base element and sidewalls as well as at least one stand element arranged at the base element, wherein the stand element is removably attached at the base element through at least one attachment element, characterized in that the attachment element is configured as a bayonet lock out of an insertable bolt and a complementary opening, wherein the bayonet bolt is inserted into the opening of the base element from the lower contact surface of the stand element as well as arranged in a completely impressed way in a corresponding recess of the stand element and the bayonet bolt comprises at least one rib-shaped thread section extending over a partial circumference of the bolt with a pith, the thread section interacting with a complementary undercut configured as a recess or a protruding rib-shaped threaded portion in the opening for forming the locking arrangement. a base element and sidewalls as well as at least one stand element arranged at the base element, wherein the stand element is removably attached at the base element through at least one attachment element, characterized in that the attachment element is configured as a bayonet lock out of an insertable bolt and a complementary opening, wherein the bayonet bolt is inserted into the opening of the base element from the lower contact surface of the stand element as well as arranged in a completely impressed way in a corresponding recess of the stand element and the bayonet bolt comprises at least one rib-shaped thread section extending over a partial circumference of the bolt with a pith, the thread section interacting with a complementary undercut configured as a recess or a protruding rib-shaped threaded portion in the opening for forming the locking arrangement.
A display device comprising: multiple light emitting modules having multiple signal lines and multiple common lines arranged thereon, and each comprising multiple light emitting diodes (122, 124, 126) mounted on an upper surface thereof and electrically connected to the multiple signal lines and the multiple common lines, respectively; a motherboard to which the multiple light emitting modules are coupled; and a bonding layer having electrical conductivity and coupling the multiple light emitting modules to the motherboard, wherein each of the multiple light emitting modules is formed on a lower surface thereof with multiple signal line terminals electrically connected to the multiple signal lines and multiple common line terminals electrically connected to the multiple common lines, and the motherboard is formed on an upper surface thereof with multiple board signal line terminals at locations corresponding to the multiple signal line terminals formed on the multiple light emitting modules and multiple board common line terminals at locations corresponding to the multiple common line terminals formed on the multiple light emitting modules. multiple light emitting modules having multiple signal lines and multiple common lines arranged thereon, and each comprising multiple light emitting diodes (122, 124, 126) mounted on an upper surface thereof and electrically connected to the multiple signal lines and the multiple common lines, respectively; a motherboard to which the multiple light emitting modules are coupled; and a bonding layer having electrical conductivity and coupling the multiple light emitting modules to the motherboard, wherein each of the multiple light emitting modules is formed on a lower surface thereof with multiple signal line terminals electrically connected to the multiple signal lines and multiple common line terminals electrically connected to the multiple common lines, and the motherboard is formed on an upper surface thereof with multiple board signal line terminals at locations corresponding to the multiple signal line terminals formed on the multiple light emitting modules and multiple board common line terminals at locations corresponding to the multiple common line terminals formed on the multiple light emitting modules.
A remote control device for vehicle capable of remotely controlling the start and stop of an engine mounted in a vehicle, comprising: - a transmission unit adapted to transmit a start request and a stop request of the engine; and - an engine control unit (10, 20) adapted to - cut off an ignition circuit of the engine in the case of satisfying, in a state where the engine is started upon receiving the start request, at least one of a condition - that a predetermined forced OFF time has elapsed and - a condition that the stop request has been received, - determine whether or not a predetermined engine OFF determination time has elapsed after the engine cuts off the ignition circuit, and - stop fuel supply to the engine when the engine does not stop even after the elapse of the engine OFF determination time. - a transmission unit adapted to transmit a start request and a stop request of the engine; and - an engine control unit (10, 20) adapted to - cut off an ignition circuit of the engine in the case of satisfying, in a state where the engine is started upon receiving the start request, at least one of a condition - that a predetermined forced OFF time has elapsed and - a condition that the stop request has been received, - determine whether or not a predetermined engine OFF determination time has elapsed after the engine cuts off the ignition circuit, and - stop fuel supply to the engine when the engine does not stop even after the elapse of the engine OFF determination time. - cut off an ignition circuit of the engine in the case of satisfying, in a state where the engine is started upon receiving the start request, at least one of a condition - that a predetermined forced OFF time has elapsed and - a condition that the stop request has been received, - that a predetermined forced OFF time has elapsed and - a condition that the stop request has been received, - determine whether or not a predetermined engine OFF determination time has elapsed after the engine cuts off the ignition circuit, and - stop fuel supply to the engine when the engine does not stop even after the elapse of the engine OFF determination time.
A vacuum distribution installation comprising: - a main vacuum line comprising an inlet orifice and an outlet orifice, - at least one vacuum pump, - an associated vacuum bleed line, fluidly connected via an upstream extremity to the main vacuum line and via a downstream extremity to the vacuum pump, - a pressure sensor including a gas pressure tap, fluidly connected to the main vacuum line, and - a control system connected to the pressure sensor and controlling the said one vacuum pump in response to at least one pressure measurement performed by the pressure sensor in the main vacuum line, wherein at least one part of the main vacuum line, the associated vacuum bleed line, the vacuum pump, the pressure sensor and the control system are comprised in a cabinet, wherein the control system includes at least one programmable logic controller, and wherein a control box, connected to the control system receives the entirety of the data from the one or more control system logic controllers, the installation being characterised in that - the control system is designed to and is able to: i) start up the vacuum pump when the pressure measured by the pressure sensor exceeds a pre-set threshold pressure value, said threshold pressure value being lower than 1 bar, and ii) halt the vacuum pump after a pre-set period of operation, and a safety vacuum switch enabling, in the event of a malfunction of the pressure sensor the automatic detection of any increase in pressure up to a pre-set threshold value and the controlling of the vacuum pump during a pre-set period of operation, independently of the control system. - a main vacuum line comprising an inlet orifice and an outlet orifice, - at least one vacuum pump, - an associated vacuum bleed line, fluidly connected via an upstream extremity to the main vacuum line and via a downstream extremity to the vacuum pump, - a pressure sensor including a gas pressure tap, fluidly connected to the main vacuum line, and - a control system connected to the pressure sensor and controlling the said one vacuum pump in response to at least one pressure measurement performed by the pressure sensor in the main vacuum line, - the control system is designed to and is able to: i) start up the vacuum pump when the pressure measured by the pressure sensor exceeds a pre-set threshold pressure value, said threshold pressure value being lower than 1 bar, and ii) halt the vacuum pump after a pre-set period of operation, i) start up the vacuum pump when the pressure measured by the pressure sensor exceeds a pre-set threshold pressure value, said threshold pressure value being lower than 1 bar, and ii) halt the vacuum pump after a pre-set period of operation,
An exercise machine for performing dip exercises, comprising: a stationary main frame; a first mounting bracket connected to the stationary main frame; a first dip handle assembly connected to the first mounting bracket, the first dip handle assembly comprising a first exercise arm, a first stop plate, and a first arm mount hub; wherein the first exercise arm is pivotally mounted on the first arm mount hub for rotation about a first pivot axis; a second mounting bracket connected to the stationary main frame; a second dip handle assembly connected to the second mounting bracket, the second dip handle assembly comprising a second exercise arm, a second stop plate, and a second arm mount hub; wherein the second exercise arm is pivotally mounted on the second arm mount hub for rotation about a second pivot axis; wherein the first and second dip handle assemblies (300, 400) are each configured to be converted between a horizontal exercise position and a vertical storage position while connected to the exercise machine, wherein the conversion of the first and second dip handle assemblies (300, 400) between the exercise position and the storage position comprises: a rotation of the first exercise arm about the first pivot axis and a rotation of the second exercise arm about the second pivot axis. a stationary main frame; a first mounting bracket connected to the stationary main frame; a first dip handle assembly connected to the first mounting bracket, the first dip handle assembly comprising a first exercise arm, a first stop plate, and a first arm mount hub; wherein the first exercise arm is pivotally mounted on the first arm mount hub for rotation about a first pivot axis; a second mounting bracket connected to the stationary main frame; a second dip handle assembly connected to the second mounting bracket, the second dip handle assembly comprising a second exercise arm, a second stop plate, and a second arm mount hub; wherein the second exercise arm is pivotally mounted on the second arm mount hub for rotation about a second pivot axis; wherein the first and second dip handle assemblies (300, 400) are each configured to be converted between a horizontal exercise position and a vertical storage position while connected to the exercise machine, wherein the conversion of the first and second dip handle assemblies (300, 400) between the exercise position and the storage position comprises: a rotation of the first exercise arm about the first pivot axis and a rotation of the second exercise arm about the second pivot axis.
Transparent Li 2 O-Al 2 O 3 -SiO 2 - glass-ceramic characterized • in that it comprises high-quartz mixed crystals as main crystal phase, • in that, apart from unavoidable raw-material impurities, it is arsenic-free and antimony-free, • in that it comprises the following components (in % by weight on an oxide basis): TiO 2 1.6 - < 2.5 Nd 2 O 3 0.005 - 0.15 MgO 0.2 - 1.0 ZnO 1 - 2.5 CaO + SrO 0 - 1.5 BaO 0 - 1.5 with the following proviso B1: MgO + ZnO > CaO + SrO + BaO. • in that it comprises high-quartz mixed crystals as main crystal phase, • in that, apart from unavoidable raw-material impurities, it is arsenic-free and antimony-free, • in that it comprises the following components (in % by weight on an oxide basis): TiO 2 1.6 - < 2.5 Nd 2 O 3 0.005 - 0.15 MgO 0.2 - 1.0 ZnO 1 - 2.5 CaO + SrO 0 - 1.5 BaO 0 - 1.5 with the following proviso B1: MgO + ZnO > CaO + SrO + BaO.
A left atrial appendage closure device comprising: a plurality of centrally joined bioabsorbable struts forming an umbrella-like support structure which is concave when viewed from a distal end of the plurality of centrally joined bioabsorbable struts, wherein the umbrella-like support structure has a first radially compact configuration and a second expanded configuration in which second expanded configuration the umbrella-like support structure has a proximal circumferential dimension sized and adapted to span the ostium of a left atrial appendage and a distal extent sized and adapted to be contained within the left atrial appendage; a bioabsorbable porous membrane which forms a porous cap coextensive with centrally joined portions of the bioabsorbable struts and which extends distally along at least a portion of the umbrella-like support structure sized and adapted to be contained within the left atrial appendage, wherein the porous membrane is bioabsorbable, the pores of the porous membrane are sized and adapted to retain thrombi within the left atrial appendage when the left atrial appendage closure device is deployed within the left atrial appendage, and the porous membrane includes a tissue growth promoting component, characterized in that a polymer of the plurality of bioabsorbable struts is the same as a polymer of the bioabsorbable porous cap, and the plurality of bioabsorbable struts and the porous cap are integrally formed. a plurality of centrally joined bioabsorbable struts forming an umbrella-like support structure which is concave when viewed from a distal end of the plurality of centrally joined bioabsorbable struts, wherein the umbrella-like support structure has a first radially compact configuration and a second expanded configuration in which second expanded configuration the umbrella-like support structure has a proximal circumferential dimension sized and adapted to span the ostium of a left atrial appendage and a distal extent sized and adapted to be contained within the left atrial appendage; a bioabsorbable porous membrane which forms a porous cap coextensive with centrally joined portions of the bioabsorbable struts and which extends distally along at least a portion of the umbrella-like support structure sized and adapted to be contained within the left atrial appendage, wherein the porous membrane is bioabsorbable, the pores of the porous membrane are sized and adapted to retain thrombi within the left atrial appendage when the left atrial appendage closure device is deployed within the left atrial appendage, and the porous membrane includes a tissue growth promoting component, characterized in that a polymer of the plurality of bioabsorbable struts is the same as a polymer of the bioabsorbable porous cap, and the plurality of bioabsorbable struts and the porous cap are integrally formed.
A foam vacuum gripper device comprising at least a vacuum gripper body and at least one foam layer arranged on a bottom surface of the vacuum gripper, wherein at least the foam layer is secured to the vacuum gripper body by way of a magnetic attraction between the bottom surface of the vacuum gripper body and the foam layer, characterized in that the device includes an attractant layer and a magnetic layer, one of the layers included in the vacuum gripper body and the other layer included in the foam layer, wherein the device include a series of air ducts extending at least through the foam layer, the magnetic layer and the attractant layer.
A cabin for an agricultural working vehicle, comprising a cabin floor, a cabin body disposed thereon which consists of a frame structure, as well as a cabin roof which comprises at least two shells (31, 32), wherein the cabin roof is configured as a prefabricated module which can be positioned on the cabin body, and in that an air treatment device is disposed between the at least two shells (31, 32) of the cabin roof configured as a prefabricated module, wherein the at least two shells contain an upper shell and a lower shell, and the air treatment device is inserted into the lower shell, characterized in that the air treatment device has inclined bearing surfaces which, in the mounted position, are flush with complementary bearing surfaces, wherein the inclined bearing surfaces and the complementary bearing surfaces are configured in order to position the air treatment device in an interlocking manner.