mhurhangee/patent-ind-claim-en huggingface dataset:
A virtual reality compute device of a vehicle , the virtual reality compute device comprising: a motion-to-virtual reality content mapping database stored therein a motion-to-virtual reality content mapping that maps vehicle motion to motion compensation virtual reality content; a virtual reality renderer configured to render virtual reality content to an occupant of the vehicle; and a virtual reality motion compensator configured to: (i) determine a motion of the vehicle based at least on sensor data generated by one or more vehicle motion sensors of the vehicle; (ii) compare the determined motion of the vehicle to the motion-to-virtual reality content mapping to determine corresponding motion compensation virtual reality content; and (iii) modify the rendered virtual reality media based on the determined motion compensation virtual reality content. a motion-to-virtual reality content mapping database stored therein a motion-to-virtual reality content mapping that maps vehicle motion to motion compensation virtual reality content; a virtual reality renderer configured to render virtual reality content to an occupant of the vehicle; and a virtual reality motion compensator configured to: (i) determine a motion of the vehicle based at least on sensor data generated by one or more vehicle motion sensors of the vehicle; (ii) compare the determined motion of the vehicle to the motion-to-virtual reality content mapping to determine corresponding motion compensation virtual reality content; and (iii) modify the rendered virtual reality media based on the determined motion compensation virtual reality content.
Apparatus for handling fluid within an at least partially electrically powered vehicle, with: an apparatus housing comprising a first housing section and a second housing section , wherein the first housing section and the second housing section are configured adjacent to each other by a fluidically impermeable contour wall , wherein the contour wall comprises a side oriented toward the first housing section and a side oriented toward the second housing section , a first fluid handling element and a second fluid handling element , wherein each of the first fluid handling element and the second fluid handling element comprises a means for generating a controllably variable magnetic field and which is arranged in the first housing section , and a means , which is movable by the generated magnetic field and which is arranged in the second housing section , wherein the fluidically impermeable contour wall is continuously provided between the first fluid handling element and the second fluid handling element . an apparatus housing comprising a first housing section and a second housing section , wherein the first housing section and the second housing section are configured adjacent to each other by a fluidically impermeable contour wall , wherein the contour wall comprises a side oriented toward the first housing section and a side oriented toward the second housing section , a first fluid handling element and a second fluid handling element , wherein each of the first fluid handling element and the second fluid handling element comprises a means for generating a controllably variable magnetic field and which is arranged in the first housing section , and a means , which is movable by the generated magnetic field and which is arranged in the second housing section , wherein the fluidically impermeable contour wall is continuously provided between the first fluid handling element and the second fluid handling element .
Method for controlling the traction chain of a hybrid vehicle , comprising a thermal engine and an electric machine , said method comprising the following action: - emission of a request to start the thermal engine in function of several parameters; in which the action of issuing a start request for the thermal engine is blocked from the start of the vehicle , characterized in that said blocking is lifted as soon as, from said start-up , one of the conditions of a pair of predetermined conditions is satisfied, these conditions being a distance D traveled by the vehicle and a speed V of the vehicle reached . - emission of a request to start the thermal engine in function of several parameters; in which the action of issuing a start request for the thermal engine is blocked from the start of the vehicle , characterized in that said blocking is lifted as soon as, from said start-up , one of the conditions of a pair of predetermined conditions is satisfied, these conditions being a distance D traveled by the vehicle and a speed V of the vehicle reached .
Thermal decoupling device between a first element and a second element that has a temperature different from that of the first element , the two elements each being provided with an opening, the thermal decoupling device comprising: - a head having an upper surface intended to come into contact with the first element and a lower surface intended to come into contact with the second element in order to maintain a fixed spacing between the first element and the second element ; - a foot intended to pass through the opening of the second element and secure the thermal decoupling device to the second element ; - an inner housing which opens at the upper surface of the head and is intended to receive a screw that passes through the opening of the first element in order to secure the thermal decoupling device to the first element ; the device being characterized in that the head is provided, between its upper surface and its lower surface , with a plurality of cooling fins which are transverse with respect to a main axis (A) of the thermal decoupling device , the plurality of fins delimiting heat dissipation zones between them. - a head having an upper surface intended to come into contact with the first element and a lower surface intended to come into contact with the second element in order to maintain a fixed spacing between the first element and the second element ; - a foot intended to pass through the opening of the second element and secure the thermal decoupling device to the second element ; - an inner housing which opens at the upper surface of the head and is intended to receive a screw that passes through the opening of the first element in order to secure the thermal decoupling device to the first element ;
A breast volume measurement apparatus, comprising: - a dome-like volume measurement: section , wherein the volume measurement section is made of semi-flexible metal or plastic derivatives; - a nipple spacing , wherein the nipple spacing is located in a middle of the volume measurement section, and configured to position a breast by placing a nipple in the nipple spacing; - an opening for intervention , wherein the opening for intervention is on a lateral surface of the volume measurement section and next to the nipple spacing, and the opening for intervention provides the volume measurement section with a level of flexibility; - a plurality of tissue control gaps , wherein the plurality of tissue control gaps are on the lateral surface of the volume measurement section, and the plurality of tissue control gaps facilitate a handling of the volume measurement section and prevent a breast tissue from slopping over during a surgery; and - a plurality of fixation channels, , wherein the plurality of fixation channels surround the nipple spacing and the opening for intervention above the volume measurement section and allow a fixation of a darker portion of the breast (nipple areola) to the volume measurement section using sutures, characterised in that a lateral surface length, which extends from the dome-like volume measurement section and the nipple spacing to the base, gradually grows narrower as the opening for intervention is approached from the rear side. - a dome-like volume measurement: section , wherein the volume measurement section is made of semi-flexible metal or plastic derivatives; - a nipple spacing , wherein the nipple spacing is located in a middle of the volume measurement section, and configured to position a breast by placing a nipple in the nipple spacing; - an opening for intervention , wherein the opening for intervention is on a lateral surface of the volume measurement section and next to the nipple spacing, and the opening for intervention provides the volume measurement section with a level of flexibility; - a plurality of tissue control gaps , wherein the plurality of tissue control gaps are on the lateral surface of the volume measurement section, and the plurality of tissue control gaps facilitate a handling of the volume measurement section and prevent a breast tissue from slopping over during a surgery; and - a plurality of fixation channels, , wherein the plurality of fixation channels surround the nipple spacing and the opening for intervention above the volume measurement section and allow a fixation of a darker portion of the breast (nipple areola) to the volume measurement section using sutures, characterised in that a lateral surface length, which extends from the dome-like volume measurement section and the nipple spacing to the base, gradually grows narrower as the opening for intervention is approached from the rear side.
Device for transmitting data comprising at least two modules having connector couplings which on the one hand serve to receive patch cables and on the other hand serve to receive trunk cables for connecting the modules to one another, the MPO connectors of the individual modules having an identical arrangement and configuration, wherein the MPO connectors are arranged on one side of the module and the matching ports for the duplex connectors are arranged on another side of the module, the module is designed in such a way that it is a closed box, wherein the line connections between MPO connectors and Duplex connectors are hardwired, characterized in that the module is equipped with two different allocations and the allocation of the module is chosen from one of the three allocation tables 1, 2, or 3: Allocation table 1 Port Modul Position MPO 1 Positiion MPO 2 Position 1T 1 11 1 R 2 12 2T 3 9 2R 4 10 3T 5 7 3R 6 8 4T 7 5 4R 8 6 5T 9 3 5R 10 4 6T 11 1 6R 12 2 7T 13 1 7R 14 2 8T 15 3 8R 16 4 9T 17 5 9R 18 6 10T 19 7 10R 20 8 11T 21 9 11R 22 10 12T 23 11 12R 24 12 Allocation table 2 Port Modul Position MP O 1 Positiion MPO 2 Position 1T 1 12 1R 2 1 2T 3 11 2R 4 2 3T 5 10 3R 6 3 4T 7 9 4R 8 4 5T 9 8 5R 10 5 6T 11 7 6R 12 6 7T 13 6 7R 14 7 8T 15 5 8R 16 8 9T 17 4 9R 18 9 10T 19 3 10R 20 10 11T 21 2 11R 22 11 12T 23 1 12R 24 12 And Allocation table 3 Port Modul Position MP O 1 Positiion MP O 2 Position 1T 1 12 1R 2 1 2T 3 11 2R 4 2 3T 5 10 3R 6 3 4T 7 9 4R 8 4 5T 9 8 5R 10 5 6T 11 7 6R 12 6 7T 13 12 7R 14 1 8T 15 11 8R 16 2 9T 17 10 9R 18 3 10T 19 9 10R 20 4 I 11T 21 8 11R 22 5 12T 23 7 12R 24 6 the MPO connectors are arranged on one side of the module and the matching ports for the duplex connectors are arranged on another side of the module, the module is designed in such a way that it is a closed box, wherein the line connections between MPO connectors and Duplex connectors are hardwired, characterized in that the module is equipped with two different allocations and the allocation of the module is chosen from one of the three allocation tables 1, 2, or 3: Allocation table 1 Port Modul Position MPO 1 Positiion MPO 2 Position 1T 1 11 1 R 2 12 2T 3 9 2R 4 10 3T 5 7 3R 6 8 4T 7 5 4R 8 6 5T 9 3 5R 10 4 6T 11 1 6R 12 2 7T 13 1 7R 14 2 8T 15 3 8R 16 4 9T 17 5 9R 18 6 10T 19 7 10R 20 8 11T 21 9 11R 22 10 12T 23 11 12R 24 12 Allocation table 2 Port Modul Position MP O 1 Positiion MPO 2 Position 1T 1 12 1R 2 1 2T 3 11 2R 4 2 3T 5 10 3R 6 3 4T 7 9 4R 8 4 5T 9 8 5R 10 5 6T 11 7 6R 12 6 7T 13 6 7R 14 7 8T 15 5 8R 16 8 9T 17 4 9R 18 9 10T 19 3 10R 20 10 11T 21 2 11R 22 11 12T 23 1 12R 24 12 And Allocation table 3 Port Modul Position MP O 1 Positiion MP O 2 Position 1T 1 12 1R 2 1 2T 3 11 2R 4 2 3T 5 10 3R 6 3 4T 7 9 4R 8 4 5T 9 8 5R 10 5 6T 11 7 6R 12 6 7T 13 12 7R 14 1 8T 15 11 8R 16 2 9T 17 10 9R 18 3 10T 19 9 10R 20 4 I 11T 21 8 11R 22 5 12T 23 7 12R 24 6
A process for the production of methanol from synthesis gas via an equilibrium reaction proceeding at elevated temperatures under elevated pressure according to the synthesis reactions CO + 2H 2 <-> CH 3 OH + heat CO 2 + 3H 2 <-> CH 3 OH + H 2 O + heat CO + H 2 O <-> CO 2 + H 2 + heat in the presence of a catalyst, said process being conducted in a methanol pre-converter within an operational window, said operational window being - defined by the area below a linear curve of the partial pressure of carbon monoxide vs. the boiling water temperature for water temperatures from 210 to 270°C, where the partial pressure of carbon monoxide increases from 20 kg/cm 2 at 210°C to 32.5 kg/cm 2 at 270°C, and - divided into two areas by an estimated by-product curve of the partial pressure of carbon monoxide vs. the boiling water temperature, said areas leading to the production of methanol of different product qualities. - defined by the area below a linear curve of the partial pressure of carbon monoxide vs. the boiling water temperature for water temperatures from 210 to 270°C, where the partial pressure of carbon monoxide increases from 20 kg/cm 2 at 210°C to 32.5 kg/cm 2 at 270°C, and - divided into two areas by an estimated by-product curve of the partial pressure of carbon monoxide vs. the boiling water temperature, said areas leading to the production of methanol of different product qualities.
An ice maker, comprising: an ice tray ; an ice making compartment ; and a heating compartment ; wherein the ice tray is configured to switch between the ice making compartment to realize ice making and the heating compartment to realize ice unloading; wherein the heating compartment and the ice making compartment are isolated from each other by a partition plate , the partition plate including: a passage through which the ice tray passes, and a sealing unit disposed at the passage between the ice tray and the partition plate to maintain the heating compartment and the ice making compartment to be isolated from each other; wherein the passage has a blocking unit which can be opened and closed and is used for isolating the ice tray from the heating compartment after the ice tray has been moved in the ice making compartment . an ice tray ; an ice making compartment ; and a heating compartment ; wherein the ice tray is configured to switch between the ice making compartment to realize ice making and the heating compartment to realize ice unloading; wherein the heating compartment and the ice making compartment are isolated from each other by a partition plate , the partition plate including: a passage through which the ice tray passes, and a sealing unit disposed at the passage between the ice tray and the partition plate to maintain the heating compartment and the ice making compartment to be isolated from each other; wherein the passage has a blocking unit which can be opened and closed and is used for isolating the ice tray from the heating compartment after the ice tray has been moved in the ice making compartment . a passage through which the ice tray passes, and a sealing unit disposed at the passage between the ice tray and the partition plate to maintain the heating compartment and the ice making compartment to be isolated from each other; wherein the passage has a blocking unit which can be opened and closed and is used for isolating the ice tray from the heating compartment after the ice tray has been moved in the ice making compartment .
A computer-implemented method, comprising: determining an equation of state, i.e., EOS for each of more than one regions of a reservoir based on results of one or more pressure, volume, or temperature, i.e., PVT experiments conducted on samples of downhole fluids obtained from the regions of the reservoir, wherein the one or more PVT experiments include at least one of a differential liberation test, a constant mass expansion test, a constant vapor depletion test, a swelling test, or fluid density measurements; determining compositions of the samples of the downhole fluids; spatially mapping the determined compositions of the samples of the downhole fluids based on interpolations between the regions of the reservoir; simulating one or more PVT experiments for the spatially mapped compositions of the downhole fluids using the determined EOS to create a compositional database of the reservoir; training one or more machine-learning algorithms using the compositional database; and using the trained one or more machine-learning algorithms to predict phase stability and perform flash calculations for compositional reservoir simulation. determining an equation of state, i.e., EOS for each of more than one regions of a reservoir based on results of one or more pressure, volume, or temperature, i.e., PVT experiments conducted on samples of downhole fluids obtained from the regions of the reservoir, wherein the one or more PVT experiments include at least one of a differential liberation test, a constant mass expansion test, a constant vapor depletion test, a swelling test, or fluid density measurements; determining compositions of the samples of the downhole fluids; spatially mapping the determined compositions of the samples of the downhole fluids based on interpolations between the regions of the reservoir; simulating one or more PVT experiments for the spatially mapped compositions of the downhole fluids using the determined EOS to create a compositional database of the reservoir; training one or more machine-learning algorithms using the compositional database; and using the trained one or more machine-learning algorithms to predict phase stability and perform flash calculations for compositional reservoir simulation.
An optical device for viewing an image of the glottis, formed by an optical conduit with a distal end and a proximal end , comprising: - image transmission means located inside it to capture and/ or transmit the image of the glottis from said distal end; said optical device characterized in that it is articulated and comprises: - at least two segments , a first substantially straight proximal segment and at least a curved distal segment, attached to one another by an articulation, said articulation comprising rotation limiting devices, said articulation allowing the movement of one segment with respect to the other between two extreme positions, a closed position where the articulation allows the axis of the proximal segment to form an angle between 90° and 120° with the axis passing through the ends of the distal segment and an opened or extended position where the articulation allows the axis of said segments to form an angle of 180°. - image transmission means located inside it to capture and/ or transmit the image of the glottis from said distal end; said optical device characterized in that it is articulated and comprises: - at least two segments , a first substantially straight proximal segment and at least a curved distal segment, attached to one another by an articulation, said articulation comprising rotation limiting devices, said articulation allowing the movement of one segment with respect to the other between two extreme positions, a closed position where the articulation allows the axis of the proximal segment to form an angle between 90° and 120° with the axis passing through the ends of the distal segment and an opened or extended position where the articulation allows the axis of said segments to form an angle of 180°. - at least two segments , a first substantially straight proximal segment and at least a curved distal segment, attached to one another by an articulation, said articulation comprising rotation limiting devices, said articulation allowing the movement of one segment with respect to the other between two extreme positions, a closed position where the articulation allows the axis of the proximal segment to form an angle between 90° and 120° with the axis passing through the ends of the distal segment and an opened or extended position where the articulation allows the axis of said segments to form an angle of 180°.
Solid particles-fluids separator comprising: - a containing body defining a housing compartment , - at least one fluid inlet , - at least one fluid outlet , - a diverter engaged inside the housing compartment and operatively interposed between the inlet and outlet , characterized in that the diverter comprises a laminar body defining an arc shape and extending longitudinally along a predetermined development direction (D) or axis between a first and second longitudinal ends , wherein the housing compartment comprises: - a first chamber delimited by an inner lateral surface of a lateral wall of the diverter , and - a second chamber delimited at least partially by an inner lateral surface of the containing body and extending at least partially outside the diverter , the first and second chambers being directly fluidically communicating with each other; wherein the inlet is directly fluidically communicating with said first chamber , the outlet being directly fluidically communicating with said second chamber and wherein the lateral wall of the diverter comprises a predetermined number of flow diverting elements emerging from the lateral wall itself and configured for intercepting and diverting at least a part of the fluid flow entering the separator , wherein the second chamber comprises a first compartment axially and immediately consecutive to the first chamber , the first compartment being delimited by the inner lateral surface of the containing body , the second chamber further comprising a second compartment directly interposed between the first compartment and the outlet of the separator , the second compartment being defined between the inner lateral surface of the containing body and an outer lateral surface of the lateral wall of the diverter , the first chamber directly fluidically communicates with the inlet , the second chamber being directly communicating, on one side, with the first chamber and, on the other side, with the outlet , the first chamber is directly interposed between the inlet and second chamber , the second chamber being directly interposed between the first chamber and outlet . - a containing body defining a housing compartment , - at least one fluid inlet , - at least one fluid outlet , - a diverter engaged inside the housing compartment and operatively interposed between the inlet and outlet , - a first chamber delimited by an inner lateral surface of a lateral wall of the diverter , and - a second chamber delimited at least partially by an inner lateral surface of the containing body and extending at least partially outside the diverter , the first and second chambers being directly fluidically communicating with each other;
A rail vehicle comprising: • a control system onboard the rail vehicle , the control system being adapted to control a plurality of devices of different kind onboard the rail vehicle , • a cabinet having a lock that can be locked in order to prevent access to a valuable device within the cabinet , • a control unit of the control system adapted to remotely control unlocking the lock, wherein the control system is adapted to unlock the lock automatically if a predetermined condition is fulfilled and/or to unlock the lock on demand. • a control system onboard the rail vehicle , the control system being adapted to control a plurality of devices of different kind onboard the rail vehicle , • a cabinet having a lock that can be locked in order to prevent access to a valuable device within the cabinet , • a control unit of the control system adapted to remotely control unlocking the lock,