mhurhangee/patent-ind-claim-en huggingface dataset:
A battery retention system for an electronic device, comprising: a door ; at least one latch coupled to said door; a base ; a cover plate attached to the base; a spring configured to receive the at least one latch; the spring bendably connected to the base by the cover plate and imposing a retention force upon the latch when the system is in a closed configuration; at least one foot proximate the door when the system is in the closed configuration; at least one shaft having an axis substantially parallel to an edge of the door upon which the latch is coupled; and at least one depressible button , coupled to the at least one foot, and connected to the at least one shaft, the at least one depressible button and the at least one foot rotatable about the axis, and configured to move the door toward an open configuration via a force sufficient to overcome the retention force and transmittable from the button to the foot upon depression of the button. a door ; at least one latch coupled to said door; a base ; a cover plate attached to the base; a spring configured to receive the at least one latch; the spring bendably connected to the base by the cover plate and imposing a retention force upon the latch when the system is in a closed configuration; at least one foot proximate the door when the system is in the closed configuration; at least one shaft having an axis substantially parallel to an edge of the door upon which the latch is coupled; and at least one depressible button , coupled to the at least one foot, and connected to the at least one shaft, the at least one depressible button and the at least one foot rotatable about the axis, and configured to move the door toward an open configuration via a force sufficient to overcome the retention force and transmittable from the button to the foot upon depression of the button.
Range-change transmission device, in particular a split transmission, comprising an input shaft , comprising a driven shaft , comprising a layshaft and comprising at least one planetary gear set (P1), wherein a first transmission element (P11) of the planetary gear set (P1) is arranged coaxially with the driven shaft and is or can be coupled to the driven shaft such that the first transmission element (P11) and the driven shaft rotate at the same angular speed, wherein a second transmission element (P12) of the planetary gear set (P1) is or can be coupled to the layshaft , wherein a third transmission element (P13) of the planetary gear set (P1) is arranged coaxially with the input shaft and is permanently connected to the input shaft such that the third transmission element (P13) and the input shaft always rotate at the same angular speed, and wherein a first shifting unit (S1) is provided for coupling the layshaft to the driven shaft , characterised in that the range-change transmission device comprises a torque adjustment device and in that the second transmission element (P12) of the planetary gear set (P1) is or can be coupled to the torque adjustment device , and in that a second shifting unit (S2) is provided, which is connected to one of the transmission elements (P11, P12, P13) of the planetary gear set (P1) and which is provided for coupling the input shaft to the layshaft .
A plug-in connector system , having an electrical plug-in connector for connection to at least one electrical line and also an electrical circuit , wherein the electrical plug-in connector has - at least one input-side contact which can be electrically connected to a signal conductor of the electrical line , - at least one output-side contact which can be electrically connected to a plug-in connector internal conductor , - shielding means which can be electrically connected to a ground conductor of the at least one electrical line , - a receptacle for the electrical circuit , and - a closure element for closing an access opening of the receptacle , wherein the electrical circuit further has contact points in order to contact-connect at least one input-side contact and at least one output-side contact when the electrical circuit is inserted into the receptacle , wherein the electrical circuit has a transmission option from the at least one input-side contact to the at least one output-side contact , characterized in that the closure element is at least partially formed from an electrically conductive material, and the closure element , when it closes the access opening of the receptacle , makes electrical contact with the shielding means for the plug-in connector . - at least one input-side contact which can be electrically connected to a signal conductor of the electrical line , - at least one output-side contact which can be electrically connected to a plug-in connector internal conductor , - shielding means which can be electrically connected to a ground conductor of the at least one electrical line , - a receptacle for the electrical circuit , and - a closure element for closing an access opening of the receptacle , wherein the electrical circuit further has contact points in order to contact-connect at least one input-side contact and at least one output-side contact when the electrical circuit is inserted into the receptacle , wherein the electrical circuit has a transmission option from the at least one input-side contact to the at least one output-side contact ,
A process for preparing a granular ceramic mixture, wherein the process comprises the steps of: (a) milling fluid bed combustion fly ash to obtain milled fluid bed combustion fly ash; (b) milling clay to obtain milled clay; (c) contacting together: (i) the milled fluid bed combustion fly ash obtained in step (a); (ii) the milled clay obtained in step (b); (iii) optionally, feldspar, and (iv) optionally, other ingredients, to form the granular ceramic mixture, wherein step (a) and step (b) are carried out separate milling steps. (a) milling fluid bed combustion fly ash to obtain milled fluid bed combustion fly ash; (b) milling clay to obtain milled clay; (c) contacting together: (i) the milled fluid bed combustion fly ash obtained in step (a); (ii) the milled clay obtained in step (b); (iii) optionally, feldspar, and (iv) optionally, other ingredients, (i) the milled fluid bed combustion fly ash obtained in step (a); (ii) the milled clay obtained in step (b); (iii) optionally, feldspar, and (iv) optionally, other ingredients,
A method for adjusting operation of a motion tracking system at least comprising first and second sensors and a computing device , each of the first and second sensors at least comprising a gyroscope , the method comprising: arranging the first sensor on an upper arm of a person , and the second sensor on a chest of the person ; and measuring orientations each of the first and second sensors while the person performs a predetermined movement; characterized in that the method further comprises: digitally processing , by the computing device , the orientations measured so as to digitally compute an orientation difference between the orientations measured by the first sensor and the orientations measured by the second sensor ; and adjusting , by the computing device , the operation of the motion tracking system based on the orientation difference computed; wherein the predetermined movement comprises the person moving a torso thereof with respect to a hip of the person , and during the predetermined movement the upper arm is not rotated with respect to a shoulder of the person connected to the upper arm . arranging the first sensor on an upper arm of a person , and the second sensor on a chest of the person ; and measuring orientations each of the first and second sensors while the person performs a predetermined movement; characterized in that the method further comprises: digitally processing , by the computing device , the orientations measured so as to digitally compute an orientation difference between the orientations measured by the first sensor and the orientations measured by the second sensor ; and adjusting , by the computing device , the operation of the motion tracking system based on the orientation difference computed; wherein the predetermined movement comprises the person moving a torso thereof with respect to a hip of the person , and during the predetermined movement the upper arm is not rotated with respect to a shoulder of the person connected to the upper arm . digitally processing , by the computing device , the orientations measured so as to digitally compute an orientation difference between the orientations measured by the first sensor and the orientations measured by the second sensor ; and adjusting , by the computing device , the operation of the motion tracking system based on the orientation difference computed; wherein the predetermined movement comprises the person moving a torso thereof with respect to a hip of the person , and during the predetermined movement the upper arm is not rotated with respect to a shoulder of the person connected to the upper arm .
A method on a server comprising: receiving from a mobile device through a first network , paired device identity information associated with an in-vehicle infotainment system that has been previously paired to the mobile device through a second, personal area network, "PAN", connection; determining content available from the server that can be executed or displayed on the mobile device based upon the paired device identity information ; and sending the determined content to the mobile device through the first network for execution or display on the mobile device , wherein the content comprises one or more applications complementary to the in-vehicle infotainment system , wherein the paired device identity information is associated with an automobile manufacturer, wherein the paired device identity information identifies the automobile manufacturer, and wherein the content comprises one or more applications that are associated with the automobile manufacturer. receiving from a mobile device through a first network , paired device identity information associated with an in-vehicle infotainment system that has been previously paired to the mobile device through a second, personal area network, "PAN", connection; determining content available from the server that can be executed or displayed on the mobile device based upon the paired device identity information ; and sending the determined content to the mobile device through the first network for execution or display on the mobile device , wherein the content comprises one or more applications complementary to the in-vehicle infotainment system , wherein the paired device identity information is associated with an automobile manufacturer, wherein the paired device identity information identifies the automobile manufacturer, and wherein the content comprises one or more applications that are associated with the automobile manufacturer.
Method for determining the location of an apparatus inside an imaging volume of an MRT system , wherein - the imaging volume is surrounded by a field magnet for creating a static basic magnetic field along a longitudinal axis (z) and by a gradient coil of the MRT system ; - the apparatus has at least one first conductor loop , which runs within a first loop plane; - by means of the gradient coil a magnetic alternating field is created in the imaging volume ; - by means of the at least one first conductor loop at least one first measured value is determined, which depends on a first induction voltage, which is induced by a first component of the alternating field at right angles to the longitudinal axis (z) in the at least one first conductor loop ; - a location of the apparatus inside the imaging volume is determined at least partly as a function of at least one first measured value and a predetermined magnetic field model for the gradient coil , characterised in that an MR signal from an object to be examined in the imaging volume is detected by means of the at least one first conductor loop and an MR image is created as a function of the MR signal. - the imaging volume is surrounded by a field magnet for creating a static basic magnetic field along a longitudinal axis (z) and by a gradient coil of the MRT system ; - the apparatus has at least one first conductor loop , which runs within a first loop plane; - by means of the gradient coil a magnetic alternating field is created in the imaging volume ; - by means of the at least one first conductor loop at least one first measured value is determined, which depends on a first induction voltage, which is induced by a first component of the alternating field at right angles to the longitudinal axis (z) in the at least one first conductor loop ; - a location of the apparatus inside the imaging volume is determined at least partly as a function of at least one first measured value and a predetermined magnetic field model for the gradient coil ,
Cavity inspection system comprising an inspection unit designed for insertion into a cavity , which comprises at least one sensor device with a camera, using which the interior space of the cavity can be viewed and which is designed to detect the shape of a wall of the cavity, as well as a control device for controlling the inspection unit , which comprises an evaluation device connected to the sensor device , wherein the evaluation device comprises a structure recognition module which is designed in such a way that it recognizes structures in the shape detected by the sensor device , characterized in that the evaluation device is an image evaluation device in which the structure recognition module comprises a neural network and is designed in such a way that it recognizes certain structures in an image captured by the camera , and the control device is designed in such a way that, when a certain structure is detected by the structure recognition module , it initiates at least one action of the cavity inspection system, that it determines the position (a) of a structure recognized by the structure recognition module and prompts a positioning of the inspection unit and/or the camera relative to the recognized structure , and that it determines the position (a) of a recognized structure taking into account at least one previously or currently detected measured value and/or data stored in a database. an inspection unit designed for insertion into a cavity , which comprises at least one sensor device with a camera, using which the interior space of the cavity can be viewed and which is designed to detect the shape of a wall of the cavity, as well as a control device for controlling the inspection unit , which comprises an evaluation device connected to the sensor device , wherein the evaluation device comprises a structure recognition module which is designed in such a way that it recognizes structures in the shape detected by the sensor device , characterized in that the evaluation device is an image evaluation device in which the structure recognition module comprises a neural network and is designed in such a way that it recognizes certain structures in an image captured by the camera , and the control device is designed in such a way that, when a certain structure is detected by the structure recognition module , it initiates at least one action of the cavity inspection system, that it determines the position (a) of a structure recognized by the structure recognition module and prompts a positioning of the inspection unit and/or the camera relative to the recognized structure , and that it determines the position (a) of a recognized structure taking into account at least one previously or currently detected measured value and/or data stored in a database.
An inhibitor of ADAMTS4 or ADAMTS5 for use in treating or preventing cardiac remodeling or chronic heart failure in a subject with cardiac remodeling or with chronic heart failure, wherein said inhibitor is pentosan polysulfate.
Industrial mixing machine, comprising a mixing head , a frame , and at least one connecting means for connecting a mixing container, containing a mixing material and open on the connection side, to the mixing head for the purpose of forming a closed mixing container, said mixing head , as part of a component group or module which can be pivoted in relation to the frame , is mounted in such a way that the closed mixing container, formed from the mixing head and mixing container, can be pivoted in relation to the frame in order to carry out the mixing process, and said mixing head comprises at least one mixing tool (19, 19.1), located on a drive shaft which engages through the base of the mixing head and driven rotationally by this drive shaft, with several radial wings (20, 20.1, 20.2; 29, 29.1, 29.2), said radial wings (20, 20.1, 20.2; 29, 29.1, 29.2) exhibiting a cross-section geometry wherein, starting from its maximum thickness, the wing thickness decreases in the direction of rotation towards the rear wing end , wherein, in the section of decreasing wing thickness, the under side of the wing is configured as stronger in the direction of rotation to the horizontal (H) than the upper side of the wing , and wherein an imaginary straight line (G), connecting the rear termination of the radial wing (20, 20.1, 20.2; 29, 29.1, 29.2) with its respective front termination pointing in the direction of rotation, is inclined in the same direction as the inclination of the under side of the wing in the section of decreasing thickness in relation to the horizontal (H), characterised in that the upper side of the wing of the radial wing (20, 20.1, 20.2; 29, 29.1, 29.2) is inclined in the same direction to the under side of the wing .
Fluid supply and storage device, in particular onboard device for storing hydrogen and supplying it to a user member, comprising a cryogenic tank for storing liquefied fluid of the double-wall and vacuum-insulated type comprising an inner jacket delimiting the fluid storage volume and an outer jacket disposed around the inner jacket with a vacuum thermal insulation gap between the two jackets, a withdrawal circuit comprising a withdrawal line comprising a first, upstream end connected to the upper part of the inner jacket and a second, downstream end intended to be connected to a user member, the withdrawal line comprising a first heating heat exchanger located outside the inner jacket and a second heating heat exchanger located inside the inner jacket , the withdrawal circuit comprising an assembly of one or more valves that is configured to ensure the passage of a flow of fluid circulating from the first end to the second end , in the process entering the first heat exchanger and then the second heat exchanger or in the process entering the first heat exchanger without entering the second heat exchanger , characterized in that the inlet of the first heat exchanger receiving the flow of fluid coming from the first end of the withdrawal line is located in the vacuum thermal insulation gap between the two jackets.
A docking station , comprising: a wireless transceiver ; a plurality of bridges configured to convert a data from a first type to a second type; a switch coupled to a plurality of input/output (I/O) controllers ; and a processor configured to: determine a link bandwidth between a device and the docking station , and measure a distance between the device and the docking station ; wherein the docking station is configured to automatically establish a wireless connection to the device if: the link bandwidth is greater than or equal to a minimum bandwidth requirement for connecting to the docking station , and the distance between the device and the docking station is less than or equal to a predetermined distance, characterised in that said predetermined distance is determined by an a priori associated size of a monitor to which the docking station is connected. a wireless transceiver ; a plurality of bridges configured to convert a data from a first type to a second type; a switch coupled to a plurality of input/output (I/O) controllers ; and a processor configured to: determine a link bandwidth between a device and the docking station , and measure a distance between the device and the docking station ; determine a link bandwidth between a device and the docking station , and measure a distance between the device and the docking station ; wherein the docking station is configured to automatically establish a wireless connection to the device if: the link bandwidth is greater than or equal to a minimum bandwidth requirement for connecting to the docking station , and the distance between the device and the docking station is less than or equal to a predetermined distance, characterised in that said predetermined distance is determined by an a priori associated size of a monitor to which the docking station is connected. the link bandwidth is greater than or equal to a minimum bandwidth requirement for connecting to the docking station , and the distance between the device and the docking station is less than or equal to a predetermined distance, characterised in that said predetermined distance is determined by an a priori associated size of a monitor to which the docking station is connected.
A method for determining and/or monitoring at least two different process variables (P1, P2) of a medium (M), wherein - a sensor unit comprising a mechanically vibratable unit and at least one piezoelectric element is excited to mechanically vibrate by means of an excitation signal (A), wherein the excitation signal (A) is an electric signal with at least one predefinable frequency, - the mechanical vibrations are received by the sensor unit and converted into a first reception signal (E A ) representing the mechanical vibrations, wherein - a transmission signal (S) is emitted and a second reception signal (Es) is received by the same sensor unit , wherein the transmission signal (S) is an ultrasonic signal, and - a first process variable (P 1 ) is ascertained by reference to the first reception signal (E A ) and a second process variable (P 2 ) is ascertained by reference to the second reception signal (Es). - a sensor unit comprising a mechanically vibratable unit and at least one piezoelectric element is excited to mechanically vibrate by means of an excitation signal (A), wherein the excitation signal (A) is an electric signal with at least one predefinable frequency, - the mechanical vibrations are received by the sensor unit and converted into a first reception signal (E A ) representing the mechanical vibrations, wherein - a transmission signal (S) is emitted and a second reception signal (Es) is received by the same sensor unit , wherein the transmission signal (S) is an ultrasonic signal, and - a first process variable (P 1 ) is ascertained by reference to the first reception signal (E A ) and a second process variable (P 2 ) is ascertained by reference to the second reception signal (Es).
Method for producing a multilayer body , wherein the method comprises the following steps, which are carried out, in particular, in the following order: - providing a substrate ; - applying a first layer made of a first metal onto the substrate ; - applying a second layer made of a second metal directly onto the first layer in at least one first region , such that the optical appearance and/or the physical properties of the first and/or second layer are changed in the at least one first region , in particular due to a chemical and/or physical reaction of the first and the second layer with each other; characterised in that a mixing layer , in particular comprising the first and the second metal, is formed in the at least one first region between the first and second layer , in particular at least partially. - providing a substrate ; - applying a first layer made of a first metal onto the substrate ; - applying a second layer made of a second metal directly onto the first layer in at least one first region , such that the optical appearance and/or the physical properties of the first and/or second layer are changed in the at least one first region , in particular due to a chemical and/or physical reaction of the first and the second layer with each other;