mhurhangee/ep-ind-claims huggingface dataset:
A method for secure control of automotive systems of each of a plurality of vehicles, the method comprising, for each of the plurality of vehicles: connecting the vehicle, as a peripheral device to a mobile device, which acts as a master device, via a security device of the vehicle, wherein the security device provides secure transmission of data and commands between the vehicle and the mobile device; receiving, by the mobile device, via the security device of the vehicle, from one or more measurement devices of the vehicle, measurement data from one or more automotive systems of the vehicle; based on the received measurement data, forming by the mobile device one or more control commands using control command forming algorithms for one or more actuating devices of the vehicle, wherein the one or more control commands enable and/or regulate operation of the one or more actuating devices of the vehicle, wherein the one or more control commands are generated by a separate process of an operating system of the mobile device for each of the one or more actuating devices; and verifying, by the mobile device, the one or more control commands for safety compliance, before transmitting the one or more control commands to the vehicle, using a set of rules based on driving safety restrictions comprising at least one of driver's age, speed limit, traffic rules, road conditions, weather conditions and traffic conditions; the method further comprising: transmitting simultaneously, by the mobile device, via the respective security devices, the one or more control commands to the one or more actuating devices of each of the plurality of vehicles. connecting the vehicle, as a peripheral device to a mobile device, which acts as a master device, via a security device of the vehicle, wherein the security device provides secure transmission of data and commands between the vehicle and the mobile device; receiving, by the mobile device, via the security device of the vehicle, from one or more measurement devices of the vehicle, measurement data from one or more automotive systems of the vehicle; based on the received measurement data, forming by the mobile device one or more control commands using control command forming algorithms for one or more actuating devices of the vehicle, wherein the one or more control commands enable and/or regulate operation of the one or more actuating devices of the vehicle, wherein the one or more control commands are generated by a separate process of an operating system of the mobile device for each of the one or more actuating devices; and verifying, by the mobile device, the one or more control commands for safety compliance, before transmitting the one or more control commands to the vehicle, using a set of rules based on driving safety restrictions comprising at least one of driver's age, speed limit, traffic rules, road conditions, weather conditions and traffic conditions; the method further comprising: transmitting simultaneously, by the mobile device, via the respective security devices, the one or more control commands to the one or more actuating devices of each of the plurality of vehicles.
A metering unit for granular material, the metering unit comprising at least - a housing with an inner cover surface in approximately the form of a circular path and/or of a circle segment; - at least one inlet opening for granular material being conveyed; - a conveying device rotating concentrically to the housing and/or to the inner cover surface and having one opening or a plurality of openings and/or shoulders at its outer area and/or at its front face for the separation of the granular material being conveyed; - and at least one outlet opening approximately tangentially connecting to the inner cover surface; characterised in that the inner cover surface is at least in sections formed by a wear insert, wherein - the wear insert starts in the area in which the circular path of the inner cover surface takes an upward slope; - the wear insert extends across a section acting as separation area; and - the wear insert ends in the area of the outlet opening. - a housing with an inner cover surface in approximately the form of a circular path and/or of a circle segment; - at least one inlet opening for granular material being conveyed; - a conveying device rotating concentrically to the housing and/or to the inner cover surface and having one opening or a plurality of openings and/or shoulders at its outer area and/or at its front face for the separation of the granular material being conveyed; - and at least one outlet opening approximately tangentially connecting to the inner cover surface; characterised in that the inner cover surface is at least in sections formed by a wear insert, wherein - the wear insert starts in the area in which the circular path of the inner cover surface takes an upward slope; - the wear insert extends across a section acting as separation area; and - the wear insert ends in the area of the outlet opening.
A laundry treatment composition comprising: from 2 to 70 wt% of a surfactant and from 0.0001 to 0.1 wt% of a blue or violet phenoxazine dye of the following formula and N-oxide thereof: wherein R 1 to R 6 are independently selected from uncharged substituents, each respective uncharged substituents R 1 to R 6 having a molecular weight in the range 1 to 150.
Toothbrush comprising a brush body with a handle part, a neck part and a head part comprising a bristle carrier, wherein the toothbrush is made from a soft material, a hard material and a bristle material in a multi-component injection molding process, and has bristles (16, 18) with a bristle stem that protrude from the bristle carrier and are injection molded from the bristle material (62, 62'), wherein a surface layer produced from the bristle material (62, 62') is injection molded onto the front face of the bristle carrier, and wherein at least a plurality of injection molded bristles (16, 18) are integrally formed with the surface layer and protrude therefrom, wherein between 100 and 500 injection molded bristles (16, 18) are present on the bristle carrier and the injection molded bristles (16, 18) have a minimum cone angle (α) of 0.5° to 5°. the toothbrush is made from a soft material, a hard material and a bristle material in a multi-component injection molding process, and has bristles (16, 18) with a bristle stem that protrude from the bristle carrier and are injection molded from the bristle material (62, 62'), wherein a surface layer produced from the bristle material (62, 62') is injection molded onto the front face of the bristle carrier, and wherein at least a plurality of injection molded bristles (16, 18) are integrally formed with the surface layer and protrude therefrom, wherein between 100 and 500 injection molded bristles (16, 18) are present on the bristle carrier and the injection molded bristles (16, 18) have a minimum cone angle (α) of 0.5° to 5°.
Method for the cryptographically protected transmission of data between network nodes of a network, wherein the data in a message are transmitted by carrying out the following steps: a) forming a NONCE value, from a count value, which is updated when the message is transmitted, and from a constant value (EANCV), which is made available by a central management network node to the remaining network nodes (2-i) of the network jointly; and b) encrypting and decrypting the data transmitted in the message by means of a cryptographic key and the NONCE value formed. a) forming a NONCE value, from a count value, which is updated when the message is transmitted, and from a constant value (EANCV), which is made available by a central management network node to the remaining network nodes (2-i) of the network jointly; and b) encrypting and decrypting the data transmitted in the message by means of a cryptographic key and the NONCE value formed.
A display device comprising a display element; a print layer disposed on a circumference of a screen display region of the display element; a window member disposed over the display element, wherein the print layer is disposed between the display element and the window member; and a guiding portion (251, 253) disposed between the window member and at least a part of the screen display region of the display element, wherein the guiding portion redirects a traveling path of light, emitted from the display element, beyond a designated angle and thereby prevents the light from being totally reflected at a surface of the window member and reaching the print layer, wherein the guiding portion is disposed more adjacent to the display element than the print layer. a display element; a print layer disposed on a circumference of a screen display region of the display element; a window member disposed over the display element, wherein the print layer is disposed between the display element and the window member; and a guiding portion (251, 253) disposed between the window member and at least a part of the screen display region of the display element, wherein the guiding portion redirects a traveling path of light, emitted from the display element, beyond a designated angle and thereby prevents the light from being totally reflected at a surface of the window member and reaching the print layer, wherein the guiding portion is disposed more adjacent to the display element than the print layer.
A method for holding an ex vivo organ for at least one of perfusion, storage and transport of the organ, comprising: - placing the organ on an organ chair constructed specifically to correspond to a type of the organ and further configured with a venous outflow sampler into which the organ chair funnels venous outflow; and then - placing the organ chair within a portable cassette, wherein the cassette is configured to be removably received by a perfusion machine and by an organ transporter and the organ is not returned to the donor. - placing the organ on an organ chair constructed specifically to correspond to a type of the organ and further configured with a venous outflow sampler into which the organ chair funnels venous outflow; and then - placing the organ chair within a portable cassette,
A screw-driving machine support for a plate-lifting tool, which comprises, with reference to the usage position: - a telescopic mast comprising a fixed segment and a first telescopic segment mounted so as to slide inside the fixed segment; - a mechanism for lifting, by means of a gear or winch, the first sliding segment relative to the fixed segment, the lifting mechanism comprising a driving shaft with a rotation axis and a means for reversible fixing with a screwing/unscrewing shaft of a screw-driving machine; the screw-driving machine support being characterized in that it comprises, with reference to the usage position: - a fixing member intended to be fixed to the mast; - a so-called lateral stop which is vertical, parallel and laterally offset relative to the rotation axis of the driving shaft by a given distance, and is intended in use to block a screw-driving machine handle laterally; - a member for adjusting the position of the lateral stop relative to the rotation axis of the driving shaft. - a telescopic mast comprising a fixed segment and a first telescopic segment mounted so as to slide inside the fixed segment; - a mechanism for lifting, by means of a gear or winch, the first sliding segment relative to the fixed segment, the lifting mechanism comprising a driving shaft with a rotation axis and a means for reversible fixing with a screwing/unscrewing shaft of a screw-driving machine; - a fixing member intended to be fixed to the mast; - a so-called lateral stop which is vertical, parallel and laterally offset relative to the rotation axis of the driving shaft by a given distance, and is intended in use to block a screw-driving machine handle laterally; - a member for adjusting the position of the lateral stop relative to the rotation axis of the driving shaft.
An optical imaging apparatus for diagnosis comprising a drive unit which functions as a power source for the rotation and axial movement of a drive shaft, and a catheter comprising said drive shaft and a connector for connecting the catheter to the drive unit, wherein the connector comprises a fiber end holding part exposing and holding an end surface of an optical fiber in order to optically connect the catheter to the drive unit; an elastic body buffering a load when the catheter is connected to the drive unit; and a member, provided between the elastic body and the fiber end holding part, abuts the fiber end holding part when the fiber end holding part retreats due to pressing of the connector into the drive unit and is fixed to the elastic body, characterized in that a frictional force between the member and the fiber end holding part is lower than a rotation suppression force of an engagement portion of the drive unit when the drive unit is not driven and the connector is pressed into the drive unit, the engagement portion being configured to engage the fiber end holding part. a drive unit which functions as a power source for the rotation and axial movement of a drive shaft, and a catheter comprising said drive shaft and a connector for connecting the catheter to the drive unit, wherein the connector comprises a fiber end holding part exposing and holding an end surface of an optical fiber in order to optically connect the catheter to the drive unit; an elastic body buffering a load when the catheter is connected to the drive unit; and a member, provided between the elastic body and the fiber end holding part, abuts the fiber end holding part when the fiber end holding part retreats due to pressing of the connector into the drive unit and is fixed to the elastic body, an elastic body buffering a load when the catheter is connected to the drive unit; and a member, provided between the elastic body and the fiber end holding part, abuts the fiber end holding part when the fiber end holding part retreats due to pressing of the connector into the drive unit and is fixed to the elastic body,
A computer implemented method comprising: controlling an active reflected wave detector to measure wave reflections from an environment using a first frame rate to accrue measured wave reflection data for a classifier, after a first amount of time of accruing measured wave reflection data from the active reflected wave detector, determining whether a predefined criteria based on the measured wave reflection data is satisfied, wherein satisfaction of the predefined criteria is indicative of the classifier being likely to successfully identify a fall status of a person in the environment by a second amount of time of accruing measured wave reflection data from the active reflected wave detector, the second amount of time being greater than the first amount of time; in the event that the predefined criteria is not met, the method comprising controlling the active reflected wave detector to accrue measured wave reflection data at a lower second frame rate for classifying the fall status based on measured wave reflection data accrued at the lower second frame rate. controlling an active reflected wave detector to measure wave reflections from an environment using a first frame rate to accrue measured wave reflection data for a classifier, after a first amount of time of accruing measured wave reflection data from the active reflected wave detector, determining whether a predefined criteria based on the measured wave reflection data is satisfied, wherein satisfaction of the predefined criteria is indicative of the classifier being likely to successfully identify a fall status of a person in the environment by a second amount of time of accruing measured wave reflection data from the active reflected wave detector, the second amount of time being greater than the first amount of time; in the event that the predefined criteria is not met, the method comprising controlling the active reflected wave detector to accrue measured wave reflection data at a lower second frame rate for classifying the fall status based on measured wave reflection data accrued at the lower second frame rate.
A communications method, comprising: receiving, by a first access and mobility management function, AMF, entity, a first message from a terminal device, wherein the first message is used to request to establish a protocol data unit, PDU, session home-routed to a first network; wherein the method is characterized by further comprising sending, by the first AMF entity, a second message to a first session management function, SMF, entity based on the first message, wherein the second message is used to request core network tunnel information of the PDU session; and receiving, by the first AMF entity, first core network tunnel information from the first SMF entity, and sending the first core network tunnel information to a second AMF entity; wherein the first core network tunnel information is used to establish a data channel, of the PDU session, between a first user plane function, UPF, entity and a UPF entity in the first network; wherein the first AMF entity, the first SMF entity, and the first UPF entity are network elements in a second network, and the second AMF entity is a network element in the first network. receiving, by a first access and mobility management function, AMF, entity, a first message from a terminal device, wherein the first message is used to request to establish a protocol data unit, PDU, session home-routed to a first network; wherein the method is characterized by further comprising sending, by the first AMF entity, a second message to a first session management function, SMF, entity based on the first message, wherein the second message is used to request core network tunnel information of the PDU session; and receiving, by the first AMF entity, first core network tunnel information from the first SMF entity, and sending the first core network tunnel information to a second AMF entity; wherein the first core network tunnel information is used to establish a data channel, of the PDU session, between a first user plane function, UPF, entity and a UPF entity in the first network; wherein the first AMF entity, the first SMF entity, and the first UPF entity are network elements in a second network, and the second AMF entity is a network element in the first network.
A gear for transmitting torque, comprising: a steel toothed annular flange having gear teeth defined on a periphery thereof; a steel hub coaxially aligned with the steel toothed annular flange; and a web formed from a web material having a density; characterized by the density of the web material being less than or equal to 3.0 grams per cubic centimeter, the web fixedly attached to the steel toothed annular flange and to the steel hub for rotation therewith, wherein the gear is to operatively transmit a torque of at least 500 Newton Meters for at least 6 million revolutions of the gear; wherein an overall mass of the gear is less than two-thirds of an overall mass of a same-sized all steel gear having a solid steel web with a solid steel web thickness at least one-third of a face width of the steel toothed annular flange;and wherein: the web material is a fiber reinforced polymer composite; the web material is reinforced with glass fiber, carbon fiber, or combinations thereof;. the web material includes a plurality of layers of fiberglass reinforcement; each layer includes fibers aligned parallel to a layer fiber alignment axis of each layer; and the layer fiber alignment axis of each layer is skewed with an adjacent layer fiber alignment axis of an adjacent layer. a steel toothed annular flange having gear teeth defined on a periphery thereof; a steel hub coaxially aligned with the steel toothed annular flange; and a web formed from a web material having a density; characterized by the density of the web material being less than or equal to 3.0 grams per cubic centimeter, the web fixedly attached to the steel toothed annular flange and to the steel hub for rotation therewith, wherein the gear is to operatively transmit a torque of at least 500 Newton Meters for at least 6 million revolutions of the gear; wherein an overall mass of the gear is less than two-thirds of an overall mass of a same-sized all steel gear having a solid steel web with a solid steel web thickness at least one-third of a face width of the steel toothed annular flange;and the web material is a fiber reinforced polymer composite; the web material is reinforced with glass fiber, carbon fiber, or combinations thereof;. the web material includes a plurality of layers of fiberglass reinforcement; each layer includes fibers aligned parallel to a layer fiber alignment axis of each layer; and the layer fiber alignment axis of each layer is skewed with an adjacent layer fiber alignment axis of an adjacent layer.
A connector manufacturing method comprising: a first insertion process of inserting a conductor held by a housing through an annular seal member; a process of placing a nut on a support member, a second insertion process of inserting the conductor through an annular portion of the support member; a pushing-in process of pushing the seal member into a gap between an inner circumferential surface of a recess in the housing and the conductor by pressing the seal member using the annular portion; and an engagement process of making the annular portion support the seal member at a predetermined position by engaging the support member and the housing, wherein the predetermined position is a position before a bottom portion of the recess, in the pushing-in process, the seal member is pushed-in by the support member supporting the nut, and the nut is fixed to the housing by the engagement process. a first insertion process of inserting a conductor held by a housing through an annular seal member; a process of placing a nut on a support member, a second insertion process of inserting the conductor through an annular portion of the support member; a pushing-in process of pushing the seal member into a gap between an inner circumferential surface of a recess in the housing and the conductor by pressing the seal member using the annular portion; and an engagement process of making the annular portion support the seal member at a predetermined position by engaging the support member and the housing, wherein the predetermined position is a position before a bottom portion of the recess, in the pushing-in process, the seal member is pushed-in by the support member supporting the nut, and the nut is fixed to the housing by the engagement process.