mhurhangee/patent-ind-claim-en huggingface dataset:
A wearable robotic device comprising: a thigh assembly having a thigh retention system to secure the thigh assembly to a user's thigh; a lower leg assembly rotatably coupled to the thigh assembly at a hinge (112R and 112L) including: a lower leg retention system to secure the lower leg assembly to a user's lower leg, a lower leg housing , a plantar element of rigid material, a leg element made of rigid material having a lower portion rigidly connected to and extending upwardly from the plantar element , and a cam lock device and a manually operated lever that is coupled to the cam lock device , , wherein the lower portion of the leg element and the plantar element are adjustably coupled to the lower leg housing and wherein a distance between the hinge (112R and 112L) and the plantar element is adjustable by movement of the cam lock device , characterized in that the cam lock device is movable by way of the manually operated lever to allow for an infinitely variable length of the lower leg assembly between a maximum length and a minimum length. a thigh assembly having a thigh retention system to secure the thigh assembly to a user's thigh; a lower leg assembly rotatably coupled to the thigh assembly at a hinge (112R and 112L) including: a lower leg retention system to secure the lower leg assembly to a user's lower leg, a lower leg housing , a plantar element of rigid material, a leg element made of rigid material having a lower portion rigidly connected to and extending upwardly from the plantar element , and a cam lock device and a manually operated lever that is coupled to the cam lock device , , a lower leg retention system to secure the lower leg assembly to a user's lower leg, a lower leg housing , a plantar element of rigid material, a leg element made of rigid material having a lower portion rigidly connected to and extending upwardly from the plantar element , and a cam lock device and a manually operated lever that is coupled to the cam lock device , , wherein the lower portion of the leg element and the plantar element are adjustably coupled to the lower leg housing and wherein a distance between the hinge (112R and 112L) and the plantar element is adjustable by movement of the cam lock device , characterized in that the cam lock device is movable by way of the manually operated lever to allow for an infinitely variable length of the lower leg assembly between a maximum length and a minimum length.
Process for the production of high value chemicals, preferably including at least ethylene, propylene, and benzene, and optionally hydrogen, toluene, xylenes and/or 1,3-butadiene by steam cracking comprising the steps of: (a) providing a non-cyclic paraffin stream (A) comprising at least 90wt% of paraffins having at least 12 carbon atoms, (b) providing an hydrocarbon stream (B) comprising at least 90wt% of components having a boiling point ranging from 15°C to 200°C measured by ASTM D86, (c) mixing said non-cyclic paraffin stream (A) with said hydrocarbon stream (B) to form a feedstock mixture; the weight content of said non-cyclic paraffin stream (A) in said feedstock mixture is greater than 0.1wt% preferably greater than 1wt% and preferably lower than 70wt%, more preferably lower than 60wt%, the most preferably lower than 50wt%, (d) steam cracking said feedstock mixture with steam in a ratio of 0.2 to 0.5 kg steam per kg of feedstock mixture to obtain cracking products preferably including at least ethylene, propylene and benzene, and optionally hydrogen, toluene, xylenes and 1,3-butadiene ; wherein step (d) is carried out at a steam to hydrocarbon ratio lower than 0.5, and at a coil outlet temperature of at least 820°C preferably at least 830°C characterized in that wherein said feedstock mixture obtained at step (c) is further mixed with at least one hydrocarbon stream (B*) prior to step (d) characterized in that said hydrocarbon stream (B*) has an initial boiling point, IBP, of at least 2°C higher than said hydrocarbon stream (B) and has an final boiling point, FBP, of at least 5°C higher than said hydrocarbon stream (B) wherein the content of said hydrocarbon stream (B*) is of 5 wt% in the mixture obtained in step (c). (a) providing a non-cyclic paraffin stream (A) comprising at least 90wt% of paraffins having at least 12 carbon atoms, (b) providing an hydrocarbon stream (B) comprising at least 90wt% of components having a boiling point ranging from 15°C to 200°C measured by ASTM D86, (c) mixing said non-cyclic paraffin stream (A) with said hydrocarbon stream (B) to form a feedstock mixture; the weight content of said non-cyclic paraffin stream (A) in said feedstock mixture is greater than 0.1wt% preferably greater than 1wt% and preferably lower than 70wt%, more preferably lower than 60wt%, the most preferably lower than 50wt%, (d) steam cracking said feedstock mixture with steam in a ratio of 0.2 to 0.5 kg steam per kg of feedstock mixture to obtain cracking products preferably including at least ethylene, propylene and benzene, and optionally hydrogen, toluene, xylenes and 1,3-butadiene ;
Method for predicting future driving conditions for a vehicle, comprising the following steps: a) gathering sensor data by way of sensors on board the vehicle, while the vehicle is travelling on a route; b) determining a position of the vehicle; c) associating the gathered data with the determined vehicle position; d) creating a map depending on the associated data; e) travelling the route again, the map being updated in real time depending on associated data from the repeated travelling; f) obtaining a prediction of future driving conditions when the route is travelled again based on the determined vehicle position and the map; characterized in that the map is depicted by a directed graph, wherein associated data are assigned to each node of the graph; depending on the determined vehicle position and the map, a prediction of future location-dependent parameters on the travelled route is made, wherein the prediction is made starting from a node of the directed graph that corresponds to the determined vehicle position; and the prediction extends over a prediction range that covers a multiplicity of nodes of the directed graph, wherein, in the event that the prediction range extends beyond a branch of the directed graph, nodes of a plurality of branch portions adjoining the branch are taken into consideration to make the prediction. a) gathering sensor data by way of sensors on board the vehicle, while the vehicle is travelling on a route; b) determining a position of the vehicle; c) associating the gathered data with the determined vehicle position; d) creating a map depending on the associated data; e) travelling the route again, the map being updated in real time depending on associated data from the repeated travelling; f) obtaining a prediction of future driving conditions when the route is travelled again based on the determined vehicle position and the map; characterized in that the map is depicted by a directed graph, wherein associated data are assigned to each node of the graph; depending on the determined vehicle position and the map, a prediction of future location-dependent parameters on the travelled route is made, wherein the prediction is made starting from a node of the directed graph that corresponds to the determined vehicle position; and the prediction extends over a prediction range that covers a multiplicity of nodes of the directed graph, wherein, in the event that the prediction range extends beyond a branch of the directed graph, nodes of a plurality of branch portions adjoining the branch are taken into consideration to make the prediction.
A greeting card system, said system comprising: a greeting card having a planar greeting card portion ; a greeting card cover moveably coupled to said planar greeting card portion to move from an open position to a closed position adjacent to said planar greeting card portion ; wherein said greeting card cover is coupled to said greeting card portion via a vertical hinge; a gift storage compartment , coupled below said planar greeting card portion , wherein said gift storage compartment comprises a volume and depth for storing an item; wherein said greeting card cover can open and close relative to said planar greeting card portion without moving said gift storage compartment ; and wherein said greeting card cover is not directly coupled to said gift storage compartment. a greeting card having a planar greeting card portion ; a greeting card cover moveably coupled to said planar greeting card portion to move from an open position to a closed position adjacent to said planar greeting card portion ; wherein said greeting card cover is coupled to said greeting card portion via a vertical hinge; a gift storage compartment , coupled below said planar greeting card portion , wherein said gift storage compartment comprises a volume and depth for storing an item; wherein said greeting card cover can open and close relative to said planar greeting card portion without moving said gift storage compartment ; wherein said greeting card cover is coupled to said greeting card portion via a vertical hinge; a gift storage compartment , coupled below said planar greeting card portion , wherein said gift storage compartment comprises a volume and depth for storing an item; wherein said greeting card cover can open and close relative to said planar greeting card portion without moving said gift storage compartment ; and wherein said greeting card cover is not directly coupled to said gift storage compartment.
A screw feeder adapted to be used in relation with a combination weigher , where the combination weigher comprises a dispersion unit , and a plurality of trenches surrounding the dispersion unit, where each of the plurality of trenches comprise an infeed end and a releasing end where each of the trenches have a circular sector like shaped bottom portion, where the dispersion unit is adapted to radially disperse food products into the trenches at their receiving ends, where at each trench the received food product is advanced by said screw feeder towards the releasing end, where said screw feeder is designed such that it has a polygon cross sectional shape having three or more edges, characterized in that the screw feeder is made of a material being softer than the material of the trenches. where said screw feeder is designed such that it has a polygon cross sectional shape having three or more edges, characterized in that the screw feeder is made of a material being softer than the material of the trenches.
A travel control device mounted on a vehicle including an electric motor and an internal combustion engine that are power sources and a storage battery that stores energy for driving the electric motor and regenerative energy recovered by regenerative braking of the electric motor , characterised by the travel control device comprising: an electronic control device configured to: create a speed profile in which a speed of the vehicle is predicted; estimate a predicted amount of the regenerative energy to be recovered, based on the speed profile; and decide the power source to be used for traveling, based on the predicted amount of the regenerative energy and thermal information indicating a demand related to heat of the vehicle. create a speed profile in which a speed of the vehicle is predicted; estimate a predicted amount of the regenerative energy to be recovered, based on the speed profile; and decide the power source to be used for traveling, based on the predicted amount of the regenerative energy and thermal information indicating a demand related to heat of the vehicle.
Method for remote detection of gaseous substances in the atmosphere by a differential absorption LIDAR system with two lasers, wherein the laser beam generated by a first laser impinges on a semipermeable mirror , where 50% of a laser beam power passes through the semipermeable mirror and proceeds through a first aperture towards the target and at the same time the remaining 50% of the laser beam power reflects from the semipermeable mirror , impinges on a totally reflecting mirror from which it is reflected and is directed through a second aperture to the same target; and a delayed laser beam generated by a second laser impinges on the semipermeable mirror , where 50% of the laser beam power passes through the semipermeable mirror , impinges on the totally reflecting mirror from which it is reflected and is directed through the second aperture to the same target and at the same time the remaining 50% of the laser beam power reflects from the semipermeable mirror and proceeds through the first aperture towards the same target.
A process for the production of pelleted compositions comprising the steps; i) treating grain and / or feed ingredient with a urea and urease enzyme composition, ii) storing the urease enzyme treated grain and/or feed ingredient at 16% to 26% moisture level such that the reaction of the urea and urease leads to a presence of ammonia in the grain or feed ingredient to provide alkaline ammonia-treated grain and/or feed ingredient with pH greater than 8, iii) mixing and combining the alkaline ammonia-treated grain and/or feed ingredient of step ii) with the other components of the pellet to provide a pellet forming mixture, iv) subjecting the pellet forming mixture to steam; and providing at least one pellet from the pellet forming mixture through extrusion. i) treating grain and / or feed ingredient with a urea and urease enzyme composition, ii) storing the urease enzyme treated grain and/or feed ingredient at 16% to 26% moisture level such that the reaction of the urea and urease leads to a presence of ammonia in the grain or feed ingredient to provide alkaline ammonia-treated grain and/or feed ingredient with pH greater than 8, iii) mixing and combining the alkaline ammonia-treated grain and/or feed ingredient of step ii) with the other components of the pellet to provide a pellet forming mixture, iv) subjecting the pellet forming mixture to steam; and providing at least one pellet from the pellet forming mixture through extrusion.
A battery management apparatus , comprising: a measuring unit configured to measure a voltage of a battery after discharge of the battery is terminated to a preset discharge termination voltage in every cycle; and a control unit configured to receive voltage information of the battery from the measuring unit in every cycle, calculate a first voltage deviation of the battery based on a preset first criterion voltage and the voltage of the battery, calculate a second voltage deviation between the first voltage deviation and a preset second criterion voltage in each cycle, and adjust the discharge termination voltage based on a criterion deviation set to correspond to a current cycle and the second voltage deviation calculated in the current cycle. a measuring unit configured to measure a voltage of a battery after discharge of the battery is terminated to a preset discharge termination voltage in every cycle; and a control unit configured to receive voltage information of the battery from the measuring unit in every cycle, calculate a first voltage deviation of the battery based on a preset first criterion voltage and the voltage of the battery, calculate a second voltage deviation between the first voltage deviation and a preset second criterion voltage in each cycle, and adjust the discharge termination voltage based on a criterion deviation set to correspond to a current cycle and the second voltage deviation calculated in the current cycle.
A protecting cover adapted for a connecting port , the protecting cover comprises: a latching component at least partially accommodatable inside the connecting port , the latching component comprising an engaging portion , the engaging portion engageable with a cooperating portion of the connecting port when the latching component is at least partially accommodated inside the connecting port ; the protecting cover being characterized in that it further comprises a releasing component detachably installed on the latching component , the releasing component comprising a resilient arm , when the releasing component is installed on the latching component , the resilient arm abutting against the engaging portion , so that the engaging portion is driven by operation of the resilient arm to disengage from the cooperating portion . a latching component at least partially accommodatable inside the connecting port , the latching component comprising an engaging portion , the engaging portion engageable with a cooperating portion of the connecting port when the latching component is at least partially accommodated inside the connecting port ; the protecting cover being characterized in that it further comprises a releasing component detachably installed on the latching component , the releasing component comprising a resilient arm , when the releasing component is installed on the latching component , the resilient arm abutting against the engaging portion , so that the engaging portion is driven by operation of the resilient arm to disengage from the cooperating portion .
A multirotor aircraft that is adapted for vertical take-off and landing, comprising a fuselage , a tail boom that is provided with a vertical fin , a thrust producing units assembly that is provided for producing thrust in operation, at least one lower wing which comprises a lower wing inboard section that is connected to the fuselage and a lower wing outboard section that forms a lower wing tip , and at least one upper wing which is connected to the vertical fin and which forms an upper wing tip , wherein the at least one upper wing is joined to the at least one lower wing in a joined-wing configuration, wherein a first thrust producing unit of the thrust producing units assembly is non-tiltably mounted to the at least one upper wing and provided for generating lift at least during vertical taking-off and landing, the first thrust producing unit being arranged near a leading edge of the at least one upper wing , and wherein a second thrust producing unit of the thrust producing units assembly is non-tiltably mounted to the at least one lower wing and provided for generating lift at least during vertical taking-off and landing, the second thrust producing unit being arranged near a trailing edge of the at least one lower wing .
Connection assembly having a plurality of receiving modules , wherein each receiving module is configured for the reception of respectively one fastening element , wherein each receiving module comprises a chamber for the reception of the respective fastening element which is delimited by an inner wall and has a first opening and a second opening , wherein the two openings delimit a through duct within the chamber , wherein the inner wall has at least one latching module on which the respective fastening element is at least temporarily to be latched within the chamber after an introduction of the respective fastening element along a longitudinal direction of the through duct through the first opening into the chamber , wherein the latched respective fastening element is to be received completely within the chamber , wherein the receiving modules of the connection assembly are made of metal and are electrically conductive, and wherein the respective fastening element is made of metal and is electrically conductive, wherein at least one device in the form of the battery is to be fastened on the connection assembly .
Reinforcing bar binding machine in which a wire is fed from a wire reel rotatably mounted on a binding machine body , the fed wire is wound around reinforcing bars, and the wound wire is twisted to bind the reinforcing bars, the reinforcing bar binding machine comprising a braking mechanism, the braking mechanism comprising: a braking means that includes a locking portion engageable with a saw-toothed engaging portion of the wire reel ; the locking portion being engageable with the engaging portion to stop a rotation of the wire reel; a driving means for driving the braking means after a wire is fed by a predetermined length from the wire reel ; a shaft , wherein one end of the shaft connects with the braking means and the other end of the shaft connects with the driving means ; a bracket that supports the shaft to the binding machine body a cover for partitioning a portion between the driving means and the wire reel ; a torsion coil spring that biases the braking means to return the braking means to an initial state of the braking means ;and a sliding portion that is arranged at an opening portion to close the opening portion and to cover around the shaft , wherein the opening portion is provided to the cover,wherein the driving means is concealed by the cover to separate from the wire reel . a braking means that includes a locking portion engageable with a saw-toothed engaging portion of the wire reel ; the locking portion being engageable with the engaging portion to stop a rotation of the wire reel; a driving means for driving the braking means after a wire is fed by a predetermined length from the wire reel ; a shaft , wherein one end of the shaft connects with the braking means and the other end of the shaft connects with the driving means ; a bracket that supports the shaft to the binding machine body a cover for partitioning a portion between the driving means and the wire reel ; a torsion coil spring that biases the braking means to return the braking means to an initial state of the braking means ;and a sliding portion that is arranged at an opening portion to close the opening portion and to cover around the shaft , wherein the opening portion is provided to the cover,wherein the driving means is concealed by the cover to separate from the wire reel .
Spinning mill comprising • a plurality of textile machines and auxiliary spinning mill devices ; • a spinning mill platform connected to the plurality of textile machines , said spinning mill platform compiling data of the plurality of textile machines and transmitting settings to said plurality of textile machines , characterised in that the textile machines and the spinning mill platform are equipped with application programming interfaces connected to databases of the textile machines and the spinning mill platform , wherein the spinning mill platform is further equipped with application programming interfaces connectable to application programming interfaces of a spinning mill application and/or a third party application equipped with databases connected to the application programming interfaces of the spinning mill application and/or the third party application , thereby enabling to exchange information and/or data directly between the databases and/or between the databases and applications of the textile machines , the spinning mill platform , the spinning mill application and/or the third party application . • a plurality of textile machines and auxiliary spinning mill devices ; • a spinning mill platform connected to the plurality of textile machines , said spinning mill platform compiling data of the plurality of textile machines and transmitting settings to said plurality of textile machines ,