mhurhangee/patent-ind-claim-en huggingface dataset:
Computer implemented method for determining an absolute position of a camera mounted on a steering wheel column in a vehicle with respect to a vehicle coordinate system as the steering wheel column is adjusted, the method comprising the following steps carried out by computer hardware components: - acquiring a plurality of position related information data sets from at least one sensor; - selecting at least one of the plurality of position related information data sets based on a pre-determined rule; - determining the position of the camera based on the at least one selected position related information data sets; - determining whether the camera is presently moving; - determining a new position during or after the movement; and - informing a further method about an ongoing movement. - acquiring a plurality of position related information data sets from at least one sensor; - selecting at least one of the plurality of position related information data sets based on a pre-determined rule; - determining the position of the camera based on the at least one selected position related information data sets; - determining whether the camera is presently moving; - determining a new position during or after the movement; and - informing a further method about an ongoing movement.
A vehicle having: a pair of side rails extending in a longitudinal direction of the vehicle ; a battery pack that is mounted below the side rails and that is formed in a rectangular parallelepiped shape with a pair of side faces each facing in the longitudinal direction of the vehicle and with front and rearside faces having a long side that is orthogonal to the longitudinal direction of the vehicle and extends beyond the side rails in a vehicle width direction; and a vehicle battery pack support device, the vehicle battery pack support device comprising a battery bracket for housing the battery pack ; and a frame bracket for coupling the side rails and the battery bracket , characterized by the battery bracket including a front first bracket and a rear first bracket covering the front and rear side faces of the battery pack , a portion of a top face that is continuous with the front and rear side faces , and a portion of a bottom face that is continuous with the front and rear side faces , the front and rear first brackets having a dimension in the vehicle width direction which is equal to or larger than the long side of the battery pack , and a left second bracket and a right second bracket covering end portions of the front first bracket and the rear first bracket in the vehicle width direction and coupled to the frame bracket , the front first bracket and the rear first bracket , the left second bracket and the right second bracket forming a box-like shape.
Method for protecting a field (T), characterized in that it comprises the following steps: - providing a tower crane comprising: • a mast ; • a jib extending in a longitudinal direction (D) and comprising a first end and a second end opposite one another in the longitudinal direction (D), the jib being arranged on the mast at the level of an assembly point (Pa) that is proximal with respect to the first end and distal with respect to the second end ; • transverse struts fitted on the jib and distributed between the first end and the second end ; - erecting the tower crane on a first side (T1) of the field (T) and then pivoting the tower crane so that the jib extends above the field (T); method characterised in that it comprises: - guying the jib at the level of the second end . - providing a tower crane comprising: • a mast ; • a jib extending in a longitudinal direction (D) and comprising a first end and a second end opposite one another in the longitudinal direction (D), the jib being arranged on the mast at the level of an assembly point (Pa) that is proximal with respect to the first end and distal with respect to the second end ; • transverse struts fitted on the jib and distributed between the first end and the second end ; • a mast ; • a jib extending in a longitudinal direction (D) and comprising a first end and a second end opposite one another in the longitudinal direction (D), the jib being arranged on the mast at the level of an assembly point (Pa) that is proximal with respect to the first end and distal with respect to the second end ; • transverse struts fitted on the jib and distributed between the first end and the second end ; - erecting the tower crane on a first side (T1) of the field (T) and then pivoting the tower crane so that the jib extends above the field (T); - guying the jib at the level of the second end .
A multilayer polymeric film, comprising: a gas barrier layer made primarily of a primary barrier layer material that is a first polymer material having elevated impermeability to a gas and has a material property; and a seal layer bonded directly to the gas barrier layer and made primarily of a primary seal layer material that is a second polymer material of polyethylene, wherein the material property of the first and second polymer materials are incompatible for producing a high-adhesion bonding of the first and second polymer materials during co-extrusion; wherein the seal layer is made of a blended polymer material comprising a blend of the primary material of the seal layer and a third polymer material, which third polymer material is blended in an amount sufficient to improve the material property of the primary material of the barrier layer so that the seal layer is bondable directly to the barrier layer with high adhesion by coextrusion; wherein at least one of the primary materials is polyethylene of density lower than that of HOPE; and wherein the third polymer material is selected from the group consisting of an anhydride modified low density polyethylene (LDPE), an anhydride modified linear low density polyethylene (LLDPE), and mixtures thereof, wherein the modification increases the number of polar atoms or groups on the polyethylene. a gas barrier layer made primarily of a primary barrier layer material that is a first polymer material having elevated impermeability to a gas and has a material property; and a seal layer bonded directly to the gas barrier layer and made primarily of a primary seal layer material that is a second polymer material of polyethylene, wherein the material property of the first and second polymer materials are incompatible for producing a high-adhesion bonding of the first and second polymer materials during co-extrusion; wherein the seal layer is made of a blended polymer material comprising a blend of the primary material of the seal layer and a third polymer material, which third polymer material is blended in an amount sufficient to improve the material property of the primary material of the barrier layer so that the seal layer is bondable directly to the barrier layer with high adhesion by coextrusion; wherein at least one of the primary materials is polyethylene of density lower than that of HOPE; and wherein the third polymer material is selected from the group consisting of an anhydride modified low density polyethylene (LDPE), an anhydride modified linear low density polyethylene (LLDPE), and mixtures thereof, wherein the modification increases the number of polar atoms or groups on the polyethylene.
A display device, comprising: a substrate , a first transistor (T1) disposed on the substrate , wherein the first transistor (T1) is a low temperature polysilicon thin film driving transistor comprising a first semiconductor layer (SL1) comprising silicon having a first lattice constant (a si ), and the first lattice constant (a si ) ranges from 5.20 Å to 5.50 Å, and the first semiconductor layer (SL1) is in a poly-crystal phase; an electrode , disposed on and connected to the first transistor (T1); and a light emitting diode disposed on the substrate , located on and connected to the electrode , and electrically connected to the first transistor (T1) through the electrode , wherein the light emitting diode comprises a semiconductor layer (132/136) comprising gallium nitride having a second lattice constant (a GaN ) and a third lattice constant (c GaN ), the third lattice constant (c GaN ) is greater than the second lattice constant (a GaN ), and the second lattice constant (a GaN ) ranges from 3.10 Å to 3.50 Å, wherein the first lattice constant and the second lattice constant are determined by TEM-SADP, wherein a ratio of the second lattice constant (a GaN ) to the first lattice constant (a si ) is greater than or equal to 0.56 and is less than or equal to 0.68, wherein a crystal ratio of the first semiconductor layer (SL1) is greater than 50% a substrate , a first transistor (T1) disposed on the substrate , wherein the first transistor (T1) is a low temperature polysilicon thin film driving transistor comprising a first semiconductor layer (SL1) comprising silicon having a first lattice constant (a si ), and the first lattice constant (a si ) ranges from 5.20 Å to 5.50 Å, and the first semiconductor layer (SL1) is in a poly-crystal phase; an electrode , disposed on and connected to the first transistor (T1); and a light emitting diode disposed on the substrate , located on and connected to the electrode , and electrically connected to the first transistor (T1) through the electrode , wherein the light emitting diode comprises a semiconductor layer (132/136) comprising gallium nitride having a second lattice constant (a GaN ) and a third lattice constant (c GaN ), the third lattice constant (c GaN ) is greater than the second lattice constant (a GaN ), and the second lattice constant (a GaN ) ranges from 3.10 Å to 3.50 Å, wherein the first lattice constant and the second lattice constant are determined by TEM-SADP, wherein a ratio of the second lattice constant (a GaN ) to the first lattice constant (a si ) is greater than or equal to 0.56 and is less than or equal to 0.68, wherein a crystal ratio of the first semiconductor layer (SL1) is greater than 50%
A method comprising: fabricating a first single crystal boule having a uniform composition and grain orientation; dividing the first uniform single crystal boule into a first plurality of layered shapes (220A;320A); stacking the first plurality of layered shapes (220A;320A) with at least a second plurality of layered shapes (220B;320B) along a first axis, the second plurality of layered shapes (220B;320B) having at least one physical aspect differing from at least one corresponding physical aspect of the first plurality of layered shapes (220A;320A); and characterized by providing a second uniform boule , wherein the second uniform boule is a directionally solidified polycrystalline boule; dividing the second uniform boule into the second plurality of layered shapes (220B;320B); joining the first plurality of layered shapes (220A;320A) and at least the second plurality of layered shapes (220B;320B) via a field assisted sintering technique (FAST) to form a bulk component; and by processing at least one of the first plurality of layered shapes and the second plurality of layered shapes to provide an in-plane or through thickness feature , wherein the stacking step includes arranging the first plurality of layered shapes and the second plurality of layered shapes to align each in-plane or through thickness feature to provide integral internal features in the bulk component. fabricating a first single crystal boule having a uniform composition and grain orientation; dividing the first uniform single crystal boule into a first plurality of layered shapes (220A;320A); stacking the first plurality of layered shapes (220A;320A) with at least a second plurality of layered shapes (220B;320B) along a first axis, the second plurality of layered shapes (220B;320B) having at least one physical aspect differing from at least one corresponding physical aspect of the first plurality of layered shapes (220A;320A); and characterized by providing a second uniform boule , wherein the second uniform boule is a directionally solidified polycrystalline boule; dividing the second uniform boule into the second plurality of layered shapes (220B;320B); joining the first plurality of layered shapes (220A;320A) and at least the second plurality of layered shapes (220B;320B) via a field assisted sintering technique (FAST) to form a bulk component; and by processing at least one of the first plurality of layered shapes and the second plurality of layered shapes to provide an in-plane or through thickness feature , wherein the stacking step includes arranging the first plurality of layered shapes and the second plurality of layered shapes to align each in-plane or through thickness feature to provide integral internal features in the bulk component.
Phosphate precipitation module, the module comprising a first and a second electrode, an electrical power supply unit providing a DC voltage, and a control unit configured to alternate the polarity between the first and the second electrode, wherein the electrodes are pair of hollow tubes, each tube comprising openings for allowing a flow of water therethrough, characterized in that the electrical power supply is connected to the respective electrodes by means of electrical power transfer means , wherein the electrical power transfer means is soldered onto the respective electrodes , in that the solder joint is performed in a water resistant manner by means of a shrink tube cuff arranged on an upper portion of each electrode , wherein the electrical power transfer means connect to the respective electrode within the shrink tube cuff and in that the first and the second electrodes are connected by means of a bar made of a non-conductive material.
Steering column for a motor vehicle, comprising a steering shaft which is rotatably mounted in a steering-shaft bearing unit , and a rotation-limitation device which is configured to limit rotation of the steering shaft , wherein the rotation-limitation device has a slotted-guide carrier which is fastened to the steering-shaft bearing unit and which has a helical slotted-guide track which surrounds the steering shaft , wherein a sliding block is displaceably guided in the slotted-guide track , characterized in that the sliding block is coupled to a rocker , wherein the rocker is tiltably held on the steering shaft , wherein the rocker has at least one counterpart stop which, for the purpose of limiting the rotation of the steering shaft , is able to be brought into operative engagement with a stop which is fastened to the steering-shaft bearing unit .
A powder supply device comprising: a hopper accommodating powder; a cylindrical roller provided below the hopper and rotatable around a rotational axis; and a wall surface facing a peripheral surface of the roller and storing the powder in a space between the roller and the wall surface, wherein the powder stored between the roller and the wall surface is moved in a rotation direction of the roller and dropped by the roller rotating, a plurality of groove portions extending in an axial direction are formed in the peripheral surface of the roller, and at least one of the plurality of groove portions is formed such that a capacity allowing the powder to be accommodated changes in the axial direction, characterized by change means by which the axial capacity can be changed wherein the change means comprise a stuffing fitted in at least one of the plurality of groove portions. a hopper accommodating powder; a cylindrical roller provided below the hopper and rotatable around a rotational axis; and a wall surface facing a peripheral surface of the roller and storing the powder in a space between the roller and the wall surface, wherein the powder stored between the roller and the wall surface is moved in a rotation direction of the roller and dropped by the roller rotating, a plurality of groove portions extending in an axial direction are formed in the peripheral surface of the roller, and at least one of the plurality of groove portions is formed such that a capacity allowing the powder to be accommodated changes in the axial direction, characterized by change means by which the axial capacity can be changed wherein the change means comprise a stuffing fitted in at least one of the plurality of groove portions.
An additive manufacturing apparatus for building an object , comprising: an irradiation source ; a build chamber, having at least one chamber wall ; a powder delivery mechanism; and a build platform on which the object is built, the build chamber and the build platform defining while in operation a powder bed , wherein at least one surface of the build chamber or build platform is moveable in a manner that is capable of adjusting forces on the object in the powder bed , wherein the at least one chamber wall is segmented and each segmented portion is loaded with springs or with actuators or with fluid pressure valves . an irradiation source ; a build chamber, having at least one chamber wall ; a powder delivery mechanism; and a build platform on which the object is built, the build chamber and the build platform defining while in operation a powder bed , wherein at least one surface of the build chamber or build platform is moveable in a manner that is capable of adjusting forces on the object in the powder bed , wherein the at least one chamber wall is segmented and each segmented portion is loaded with springs or with actuators or with fluid pressure valves .
Use of a device for performing continuous chemical reactions for reacting finely disperse alkali metal dispersions in inert solvents, characterized by that a rotary disk reactor is employed as said device.
Cleaning system for a sensors unit of at least two sensors for a vehicle , the cleaning system comprising a first cleaning assembly comprising at least a first blade intended, by sweeping across it, to clean a first optical surface of a first optical sensor of the sensors unit , a second cleaning assembly comprising at least a second blade distinct from the first blade and intended, by sweeping across it, to clean a second optical surface of a second optical sensor of the sensors unit , the cleaning system further comprising a rotational-drive device for simultaneously driving the rotation, about a common axis of rotation , of the first cleaning assembly and of the second cleaning assembly, the cleaning system being characterized in that the drive device comprises at least one fixing bearing to which each of the cleaning assemblies is fixed independently.
Wireless communication apparatus comprising: first base station means providing an access point to a first communications network, the first base station means being operable to communicate wirelessly with a first access terminal using a first carrier at a first frequency and having a first bandwidth; second base station means providing an access point to a second communications network, the second base station means being operable to communicate wirelessly with a second access terminal using a set of carriers at respective different frequencies within a second frequency band, wherein the second frequency band has a second bandwidth larger than the first bandwidth and the first frequency is within the second frequency band, wherein the second base station means is arranged to inhibit transmission of data by the second base station means to the second access terminal using a subset of carriers having frequencies within the first bandwidth of the first frequency, wherein the second base station means comprises: a scheduler arranged to schedule control data on the set of carriers; and is further characterised by comprising a filter arranged to remove control data scheduled to be transmitted on said subset of carriers having frequencies within the first bandwidth of the first frequency. first base station means providing an access point to a first communications network, the first base station means being operable to communicate wirelessly with a first access terminal using a first carrier at a first frequency and having a first bandwidth; second base station means providing an access point to a second communications network, the second base station means being operable to communicate wirelessly with a second access terminal using a set of carriers at respective different frequencies within a second frequency band, wherein the second frequency band has a second bandwidth larger than the first bandwidth and the first frequency is within the second frequency band, wherein the second base station means is arranged to inhibit transmission of data by the second base station means to the second access terminal using a subset of carriers having frequencies within the first bandwidth of the first frequency, wherein the second base station means comprises: a scheduler arranged to schedule control data on the set of carriers; and is further characterised by comprising a filter arranged to remove control data scheduled to be transmitted on said subset of carriers having frequencies within the first bandwidth of the first frequency. a scheduler arranged to schedule control data on the set of carriers; and is further characterised by comprising a filter arranged to remove control data scheduled to be transmitted on said subset of carriers having frequencies within the first bandwidth of the first frequency.
A pasta-making attachment for a multi-purpose kitchen machine , the attachment comprising components of a meat-grinding attachment including a hollow main body part having a processing cavity therein within which a scroll-like extruder screw can rotate when driven by the machine, and a hopper for allowing foodstuffs to be introduced into the processing cavity ; the pasta-making attachment further comprising a replacement scroll-like extruder screw dedicated to pasta making, and replacement pasta-extrusion dies ; the attachment being characterised by the further provision of a tubular conversion device for insertion into the processing cavity to condition said cavity for operation with said replacement scroll-like extruder screw dedicated to pasta making.
A braking system comprising: a controller ; a first wheel and a second wheel , the first wheel laterally displaced from the second wheel by a first distance; and a first wheel speed sensor coupled to the first wheel and a second wheel sensor coupled to the second wheel; wherein the controller is configured to determine at least one of a slip ratio, a coefficient of friction, or a braking pressure of the second wheel in response to failure of the first wheel speed sensor; characterized in that the controller is configured to calculate a consistency value during a wheel skid event of the at least one of the slip ratio, the coefficient of friction, or the braking pressure and to adjust a braking pressure applied to the first wheel in real-time based upon the consistency value and the first distance. a controller ; a first wheel and a second wheel , the first wheel laterally displaced from the second wheel by a first distance; and a first wheel speed sensor coupled to the first wheel and a second wheel sensor coupled to the second wheel; wherein the controller is configured to determine at least one of a slip ratio, a coefficient of friction, or a braking pressure of the second wheel in response to failure of the first wheel speed sensor; characterized in that the controller is configured to calculate a consistency value during a wheel skid event of the at least one of the slip ratio, the coefficient of friction, or the braking pressure and to adjust a braking pressure applied to the first wheel in real-time based upon the consistency value and the first distance.