mhurhangee/patent-ind-claim-en huggingface dataset:
An optical output device for receiving incident light and providing output light , comprising: a plate having a first main surface for receiving the incident light and a second opposing surface for providing the output light, wherein at least one of the first and second surfaces comprises a tessellated surface of tessellated lenses , wherein the tessellated lenses comprise at least five different regions of hexagonal lenses wherein within each region all hexagons are regular hexagons of the same size and the same angular orientation with respect to each other, wherein the at least five different regions have a relative rotation angle (θ) between them, of the lenses about a normal to the tessellated surface, with 0 < θ < 30 degrees, said relative rotation angle is a smallest angle between a side of one hexagonal pattern and a most aligned side of the other hexagonal pattern, characterized in that the at least five different regions have random relative angles between said different regions and in that each region comprises at least seven tessellated lenses of a central hexagon and six surrounding hexagons. a plate having a first main surface for receiving the incident light and a second opposing surface for providing the output light, wherein at least one of the first and second surfaces comprises a tessellated surface of tessellated lenses , wherein the tessellated lenses comprise at least five different regions of hexagonal lenses wherein within each region all hexagons are regular hexagons of the same size and the same angular orientation with respect to each other, wherein the at least five different regions have a relative rotation angle (θ) between them, of the lenses about a normal to the tessellated surface, with 0 < θ < 30 degrees, said relative rotation angle is a smallest angle between a side of one hexagonal pattern and a most aligned side of the other hexagonal pattern, characterized in that the at least five different regions have random relative angles between said different regions and in that each region comprises at least seven tessellated lenses of a central hexagon and six surrounding hexagons.
A vehicle driving assembly with transversely placed single power source, connected to vehicle axle half shafts, wherein the vehicle driving assembly comprises a power source and an automatic transmission , the automatic transmission is provided with an input shaft , the power source is connected to the input shaft , and a differential is provided at a joint of the automatic transmission and the vehicle axle half shafts; in the automatic transmission , a first intermediate shaft is provided parallel to the input shaft , a second intermediate shaft is provided in the direction coaxial with the input shaft , a third intermediate shaft is provided in the direction coaxial with the first intermediate shaft , a first clutch is provided between the first intermediate shaft and the third intermediate shaft , and a second clutch is provided between the input shaft and the second intermediate shaft ; the input shaft is provided with a first gear , the first intermediate shaft is provided with a second gear , and the first gear and the second gear are engaged to transmit power; the second intermediate shaft is provided with a third gear , the third intermediate shaft is provided with a fourth gear , and the third gear and the fourth gear are engaged to transmit power; and the third intermediate shaft is further provided with a fifth gear at a position between the first clutch and the fourth gear , the differential is provided with a sixth gear , and the fifth gear and the sixth gear are engaged to transmit power; and the power source is the combination of an engine and an ISG electric motor , and a torsional shock absorber is provided between the engine and the ISG electric motor .
A stent graft comprising a plurality of stents arranged along a main tubular body of a biocompatible graft defining a main lumen, the plurality of stents comprising a first stent extending around a scalloped fenestration located at an-a proximal end of the main tubular body ; the scalloped fenestration having a perimeter edge including side edges and an end between the side edges; the first stent comprising a plurality of stent struts extending between proximal and distal apices in an annular formation around the main tubular body , wherein first and second stent struts of said plurality of stent struts are adjacent to the side edges of the scalloped fenestration; the first stent consisting of a first circumferential stent section and a second circumferential stent section, the second circumferential stent section being connected between the first and second stent struts and extending across the end of the scalloped fenestration, all distal apices of the first stent being disposed distal of the scalloped fenestration; wherein the second circumferential section consists of third and fourth stent struts meeting at a proximal apex adjacent to the end of the scalloped fenestration; wherein the stent graft includes a second fenestration in the main tubular body.
A method of selective authorization by a host device , comprising: determining to admit a client device into a network sharing session with the host device ; detecting that the client device is proximate to the host device ; receiving an identifier from the admitted client device for identifying the admitted client device , wherein presentation of the identifier by the client device is initiated by a user of the client device ; establishing the network sharing session utilizing the identifier if a user of the host device determines to admit the client device into the network sharing session; establishing a network connection with a server ; providing identification information corresponding to the identifier to the server ; receiving user information from the server to enable an establishment of communication with the admitted client device ; and establishing a direct, ad-hoc wireless connection with the admitted client device utilizing the user information from the server ; wherein the receiving of the identifier comprises at least one of receiving a visual image at the host device from the admitted client device or receiving an audio signal emitted by an audio emitter coupled to the admitted client device . determining to admit a client device into a network sharing session with the host device ; detecting that the client device is proximate to the host device ; receiving an identifier from the admitted client device for identifying the admitted client device , wherein presentation of the identifier by the client device is initiated by a user of the client device ; establishing the network sharing session utilizing the identifier if a user of the host device determines to admit the client device into the network sharing session; establishing a network connection with a server ; providing identification information corresponding to the identifier to the server ; receiving user information from the server to enable an establishment of communication with the admitted client device ; and establishing a direct, ad-hoc wireless connection with the admitted client device utilizing the user information from the server ; wherein the receiving of the identifier comprises at least one of receiving a visual image at the host device from the admitted client device or receiving an audio signal emitted by an audio emitter coupled to the admitted client device .
A method for calibrating an electrochemical glucose sensor , the method comprising: providing prior information for sensitivity obtained from in vitro tests; using a regression equation y=mx+b to calculate a conversion function, where y denotes the sensor signal, x the estimated glucose concentration, m the predicted in vivo sensor sensitivity and b the baseline; wherein a predictive relationship between in vitro sensitivity and in vivo sensitivity is used to calibrate the sensor, whereby m ≈∫(m in vitro ) . providing prior information for sensitivity obtained from in vitro tests; using a regression equation y=mx+b to calculate a conversion function, where y denotes the sensor signal, x the estimated glucose concentration, m the predicted in vivo sensor sensitivity and b the baseline; wherein a predictive relationship between in vitro sensitivity and in vivo sensitivity is used to calibrate the sensor, whereby m ≈∫(m in vitro ) .
An implantable blood pump system comprising: a pump including a housing having an axis, and a rotor disposed within the housing , the rotor being rotatable around the axis; and a control circuit operatively coupled to the pump , the control circuit being configured to: determine a differential pressure across the blood pump based at least in part on an initial speed of rotation of the rotor ; characterised in that the control circuit is further configured to: compare the differential pressure to a threshold pressure value; determine the presence or absence of a high pressure condition based at least in part on the comparison; and in response to determining the presence of a high pressure condition, determine an updated speed of rotation of the rotor , the updated speed being less than the initial speed. a pump including a housing having an axis, and a rotor disposed within the housing , the rotor being rotatable around the axis; and a control circuit operatively coupled to the pump , the control circuit being configured to: determine a differential pressure across the blood pump based at least in part on an initial speed of rotation of the rotor ; characterised in that the control circuit is further configured to: compare the differential pressure to a threshold pressure value; determine the presence or absence of a high pressure condition based at least in part on the comparison; and in response to determining the presence of a high pressure condition, determine an updated speed of rotation of the rotor , the updated speed being less than the initial speed. determine a differential pressure across the blood pump based at least in part on an initial speed of rotation of the rotor ; characterised in that the control circuit is further configured to: compare the differential pressure to a threshold pressure value; determine the presence or absence of a high pressure condition based at least in part on the comparison; and in response to determining the presence of a high pressure condition, determine an updated speed of rotation of the rotor , the updated speed being less than the initial speed.
A drawer guide comprising: a fixed body ; an operation body that is withdrawable from the fixed body ; a base provided in the fixed body ; a base slit comprising a linear portion provided along the same direction with the moving direction of the operation body ; and a curved portion upwardly or downwardly extended from a front end of the linear portion located in a withdrawing direction of the operation body , the base slit provided in the base ; a first slide movably coupled to the base to be movable along the base ; a second slide movable along the base and movable rearward by the first slide ; a slide slit provided to penetrate the second slide ; a first transfer unit having one end movably coupled to the base slit and the other end inserted in the slide slit to penetrate the second slide ; a second transfer unit provided in the operation body and detachably coupled to the first transfer unit , the second transfer unit configured to move the first transfer unit to the curved portion from the linear portion when the operation body is moved towards the withdrawing direction from the fixed body and the first transfer unit to the linear portion from the curved portion when the operation body is moved towards the inserting direction in the fixed body ; a spring provided to connect the base and the first slide with each other and move the first slide towards rearward when the first transfer unit is moved to the linear portion from the curved portion ; and an attractive power supply unit configured to supply a power to the second slide to move the second slide rearward. a fixed body ; an operation body that is withdrawable from the fixed body ; a base provided in the fixed body ; a base slit comprising a linear portion provided along the same direction with the moving direction of the operation body ; and a curved portion upwardly or downwardly extended from a front end of the linear portion located in a withdrawing direction of the operation body , the base slit provided in the base ; a first slide movably coupled to the base to be movable along the base ; a second slide movable along the base and movable rearward by the first slide ; a slide slit provided to penetrate the second slide ; a first transfer unit having one end movably coupled to the base slit and the other end inserted in the slide slit to penetrate the second slide ; a second transfer unit provided in the operation body and detachably coupled to the first transfer unit , the second transfer unit configured to move the first transfer unit to the curved portion from the linear portion when the operation body is moved towards the withdrawing direction from the fixed body and the first transfer unit to the linear portion from the curved portion when the operation body is moved towards the inserting direction in the fixed body ; a spring provided to connect the base and the first slide with each other and move the first slide towards rearward when the first transfer unit is moved to the linear portion from the curved portion ; and an attractive power supply unit configured to supply a power to the second slide to move the second slide rearward.
A terminal housing, comprising: a rear cover ; a radio frequency module ; and an antenna array ; wherein the radio frequency module is coupled to the antenna array ; and the rear cover comprises a first area and a second area , wherein the second area is different from the first area , and the first area is coupled to the second area using a first insulating material; and the first area comprises a plurality of antenna array elements , each of the plurality of antenna array elements is made of conductive material; characterized in that , any two adjacent antenna array elements are coupled to each other using a second insulating material provided between the two adjacent antenna array elements , and the plurality of antenna array elements form the antenna array, wherein the antenna array is formed on the rear cover, wherein the rear cover is made of metal material, the first insulating material is formed on the rear cover to separate the rear cover into the first area and the second area , the first area and the second area being insulated and disconnected from each other via the first insulating material, wherein the second insulating material is formed in the first area of the rear cover , to separate the first area into the plurality of antenna array elements , the plurality of antenna array elements being insulated and disconnected from each other via the second insulating material; wherein the first insulating material and the second insulating material are formed on the rear cover by an injection molding process. a rear cover ; a radio frequency module ; and an antenna array ; wherein the radio frequency module is coupled to the antenna array ; and the rear cover comprises a first area and a second area , wherein the second area is different from the first area , and the first area is coupled to the second area using a first insulating material; and the first area comprises a plurality of antenna array elements , each of the plurality of antenna array elements is made of conductive material; characterized in that , any two adjacent antenna array elements are coupled to each other using a second insulating material provided between the two adjacent antenna array elements , and the plurality of antenna array elements form the antenna array, wherein the antenna array is formed on the rear cover, wherein the rear cover is made of metal material, the first insulating material is formed on the rear cover to separate the rear cover into the first area and the second area , the first area and the second area being insulated and disconnected from each other via the first insulating material, wherein the second insulating material is formed in the first area of the rear cover , to separate the first area into the plurality of antenna array elements , the plurality of antenna array elements being insulated and disconnected from each other via the second insulating material; wherein the first insulating material and the second insulating material are formed on the rear cover by an injection molding process.
Surface cleaning device for cleaning surfaces, having a base section which comprises an underside on which a cleaning surface, in particular a cleaning pad, is provided or can be fixed, and an upper side on which a handle is arranged, wherein the base section has along its peripheral line at least one section which is rounded along the peripheral line, and at least one section which tapers to a point along the peripheral line, characterised in that two straight sections which are parallel to one another are provided between the pointed section and the at least one round section .
A steam de-wrinkling appliance having a de-wrinkling head (1; 101; 201) connected by a line (2; 102; 202) to a base for producing a steam flow, the de-wrinkling head (1; 101;201) comprising a rear portion forming a handle (3; 103; 203) and a flared front portion (4; 104, 204) having a surface comprising steam exit holes (51, 52; 151, 152; 251, 252) for distributing the steam flow originating from the base, the surface comprising at least one first group of steam exit holes (51; 151; 251) and a second group of steam exit holes (52; 152; 252), characterised in that the flared front portion (4; 104; 204) encloses a single steam plenum chamber (61; 161; 261) that supplies steam to the first and second group of steam exit holes (51,52; 151, 152; 251, 252), the line (2; 102; 202) comprising an end connected to the base, which communicates freely with a boiling chamber, and an end connected to the de-wrinkling head (1; 101; 201), which communicates freely with the plenum chamber (61; 161; 261), and in that the de-wrinkling head has a flow-area reducing device comprising a movable member (9; 109; 209), the movable member (9; 109; 209) being capable of assuming a retracted position, in which the plenum chamber communicates freely with the entirety of the first group of steam exit holes (51; 151; 251) and a second group of steam exit holes (52; 152; 252), and a restriction position, in which the movable member (9; 109; 209) covers, at least partially, the second group of steam exit holes (52; 152; 252) or isolates the steam plenum chamber in order to reduce, even stop, the distribution of steam through the second group of steam exit holes (52; 152; 252).
A heating and cooling system for a vehicle having an internal combustion engine, the system comprising: at least one exhaust pipe conveying exhaust gases away from the engine; a reactor vessel located in the exhaust pipe and containing an absorbent salt and a refrigerant fluid; a condenser in fluid communication with the reactor vessel , the condenser receiving refrigerant vapour from the reactor when exhaust gases heat the reactor vessel in the exhaust pipe ; and wherein the system further comprises: an evaporator locatable in a cab of the vehicle and being in fluid communication with the condenser and the reactor vessel , the evaporator receiving condensed refrigerant from the condenser so as to cool the air surrounding the evaporator, and returning refrigerant vapour to the reactor vessel; an air/fuel burner in fluid communication with sources of air and fuel, the burner selectively operable to introduce air or an air/fuel mixture into the at least one exhaust pipe upstream of the reactor vessel ; and an exhaust air inlet in the at least one exhaust pipe upstream of the reactor vessel , the air inlet being movable between closed and open positions to selectively allow ambient air to be drawn into the exhaust pipe. at least one exhaust pipe conveying exhaust gases away from the engine; a reactor vessel located in the exhaust pipe and containing an absorbent salt and a refrigerant fluid; a condenser in fluid communication with the reactor vessel , the condenser receiving refrigerant vapour from the reactor when exhaust gases heat the reactor vessel in the exhaust pipe ; and wherein the system further comprises: an evaporator locatable in a cab of the vehicle and being in fluid communication with the condenser and the reactor vessel , the evaporator receiving condensed refrigerant from the condenser so as to cool the air surrounding the evaporator, and returning refrigerant vapour to the reactor vessel; an air/fuel burner in fluid communication with sources of air and fuel, the burner selectively operable to introduce air or an air/fuel mixture into the at least one exhaust pipe upstream of the reactor vessel ; and an exhaust air inlet in the at least one exhaust pipe upstream of the reactor vessel , the air inlet being movable between closed and open positions to selectively allow ambient air to be drawn into the exhaust pipe. an evaporator locatable in a cab of the vehicle and being in fluid communication with the condenser and the reactor vessel , the evaporator receiving condensed refrigerant from the condenser so as to cool the air surrounding the evaporator, and returning refrigerant vapour to the reactor vessel; an air/fuel burner in fluid communication with sources of air and fuel, the burner selectively operable to introduce air or an air/fuel mixture into the at least one exhaust pipe upstream of the reactor vessel ; and an exhaust air inlet in the at least one exhaust pipe upstream of the reactor vessel , the air inlet being movable between closed and open positions to selectively allow ambient air to be drawn into the exhaust pipe.
A method operable by a processor for determining stereoscopic multimedia information, the method comprising: adjusting in real time a baseline distance between a first aerial vehicle and a second aerial vehicle of a plurality of aerial vehicles based on an attribute of a target object to be shot by the plurality of aerial vehicles and a distance between the target object to be shot and the plurality of aerial vehicles, wherein the attribute of the object to be shot includes at least one of: the shape of the object to be shot, a region occupied in multimedia information by the object to be shot, and a surface feature attribute of the object to be shot; acquiring multimedia information about the target object from the first and the second aerial vehicles with the adjusted baseline distance; and determining stereoscopic multimedia information based on the acquired plurality of multimedia information. adjusting in real time a baseline distance between a first aerial vehicle and a second aerial vehicle of a plurality of aerial vehicles based on an attribute of a target object to be shot by the plurality of aerial vehicles and a distance between the target object to be shot and the plurality of aerial vehicles, wherein the attribute of the object to be shot includes at least one of: the shape of the object to be shot, a region occupied in multimedia information by the object to be shot, and a surface feature attribute of the object to be shot; acquiring multimedia information about the target object from the first and the second aerial vehicles with the adjusted baseline distance; and determining stereoscopic multimedia information based on the acquired plurality of multimedia information.