mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile terminal, comprising: a body (BD, 200) comprising a plurality of bodies , positioned in a specific state between a first state in which the plurality of bodies are flat and a second state in which the plurality of bodies are folded; a flexible display (D) positioned on one side of the body (BD, 200); a back cover (BC) positioned on the other side of the body (BD, 200), wherein when the position of the body is changed from the first state to the second state, at least a partial region of the body covered by the back cover (BC) is uncovered; a hinge assembly (HGA) having a guide shaft (SFT) coupled to the plurality of bodies ; and a bezel in an outer region of the flexible display (D) wherein the guide shaft (SFT) comprises a plurality of curved portions (CV1, CV2, CV3) in which at least one curvature is different from at least another curvature, wherein the bezel comprises: a first bezel (BZ1) on one side of the flexible display (D), and a second bezel (BZ2) at a position opposite to the first bezel (BZ1) about the flexible display (D), and a width of the first bezel (BZ1) is larger than that of the second bezel (BZ2), and at least a partial region of the first bezel (BZ1) is a transparent or translucent region (TA). a body (BD, 200) comprising a plurality of bodies , positioned in a specific state between a first state in which the plurality of bodies are flat and a second state in which the plurality of bodies are folded; a flexible display (D) positioned on one side of the body (BD, 200); a back cover (BC) positioned on the other side of the body (BD, 200), wherein when the position of the body is changed from the first state to the second state, at least a partial region of the body covered by the back cover (BC) is uncovered; a hinge assembly (HGA) having a guide shaft (SFT) coupled to the plurality of bodies ; and a bezel in an outer region of the flexible display (D) wherein the guide shaft (SFT) comprises a plurality of curved portions (CV1, CV2, CV3) in which at least one curvature is different from at least another curvature, wherein the bezel comprises: a first bezel (BZ1) on one side of the flexible display (D), and a second bezel (BZ2) at a position opposite to the first bezel (BZ1) about the flexible display (D), and a width of the first bezel (BZ1) is larger than that of the second bezel (BZ2), and at least a partial region of the first bezel (BZ1) is a transparent or translucent region (TA). a first bezel (BZ1) on one side of the flexible display (D), and a second bezel (BZ2) at a position opposite to the first bezel (BZ1) about the flexible display (D), and a width of the first bezel (BZ1) is larger than that of the second bezel (BZ2), and at least a partial region of the first bezel (BZ1) is a transparent or translucent region (TA).
A nanoparticle drug carrier comprising: a silica nanoparticle having a surface and defining a plurality of pores that are suitable to receive molecules therein; a phospholipid bilayer coating the surface; a protonating agent disposed within the plurality of pores where said protonating agent comprises triethylammonium sucrose octasulfate (TEAsSOS); and a cargo comprising a drug, wherein said drug consists of irinotecan, and where the cargo is associated with the protonating agent in the plurality of pores; wherein the nanoparticle drug carrier has a submicron structure which has a maximum dimension of less than one micron, and wherein the phospholipid bilayer stably seals the plurality of pores. a silica nanoparticle having a surface and defining a plurality of pores that are suitable to receive molecules therein; a phospholipid bilayer coating the surface; a protonating agent disposed within the plurality of pores where said protonating agent comprises triethylammonium sucrose octasulfate (TEAsSOS); and a cargo comprising a drug, wherein said drug consists of irinotecan, and where the cargo is associated with the protonating agent in the plurality of pores; wherein the nanoparticle drug carrier has a submicron structure which has a maximum dimension of less than one micron, and wherein the phospholipid bilayer stably seals the plurality of pores.
A method for providing communication between a first device and a second device , the method comprising: iterating , by the first device , over a first number of transmitter antenna polarization types in the first device; iterating , by the first device , for a given transmitter antenna polarization type, over a second number of transmitter antenna directional patterns in the first device ; and constructing , by the first device , a number of data units based on each of the transmitter antenna polarization types; transmitting , by the first device , each of the data units for each of a number of receiver antenna polarization types in the second device ; receiving , by the first device , an indication of a transmitter antenna polarization type in the first device included in the number of transmitter antenna polarization types in the first device ; receiving , by the first device , along with the indication of a transmitter antenna polarization type in the first device , an indication of a transmitter antenna directional pattern in the first device included in the number of transmitter antenna directional patterns in the first device , and transmitting , by the first device , data using the indicated transmitter antenna polarization; wherein the constructed number of data units is based on a multiplication of the first number and the second number. iterating , by the first device , over a first number of transmitter antenna polarization types in the first device; iterating , by the first device , for a given transmitter antenna polarization type, over a second number of transmitter antenna directional patterns in the first device ; and constructing , by the first device , a number of data units based on each of the transmitter antenna polarization types; transmitting , by the first device , each of the data units for each of a number of receiver antenna polarization types in the second device ; receiving , by the first device , an indication of a transmitter antenna polarization type in the first device included in the number of transmitter antenna polarization types in the first device ; receiving , by the first device , along with the indication of a transmitter antenna polarization type in the first device , an indication of a transmitter antenna directional pattern in the first device included in the number of transmitter antenna directional patterns in the first device , and transmitting , by the first device , data using the indicated transmitter antenna polarization; wherein the constructed number of data units is based on a multiplication of the first number and the second number.
An encoding method, comprising: encoding information bits according to a first-level encoding method to obtain a first-level encoded code word, wherein the first-level encoded code word comprises the information bits and check bits; for each check bit, obtaining a sorting value S of the check bit of the first-level encoded code word, and adjusting a position of the check bit to a position after first S information bits and before the (S+1)th information bit according to the sorting value corresponding to the check bit, wherein the check bit relates to the first S information bits, and the S is a nonzero integer; and performing Polar encoding on the first-level encoded code word after the position of each check bit is adjusted, to obtain a Polar encoded code word. encoding information bits according to a first-level encoding method to obtain a first-level encoded code word, wherein the first-level encoded code word comprises the information bits and check bits; for each check bit, obtaining a sorting value S of the check bit of the first-level encoded code word, and adjusting a position of the check bit to a position after first S information bits and before the (S+1)th information bit according to the sorting value corresponding to the check bit, wherein the check bit relates to the first S information bits, and the S is a nonzero integer; and performing Polar encoding on the first-level encoded code word after the position of each check bit is adjusted, to obtain a Polar encoded code word.
A sole structure for an article of footwear, the sole structure comprising: a component including a first bundle of fibers affixed to a substrate (228; 228a, 228b); a ground-engaging assembly (218; 218a-218f) including a first traction element , a second traction element , and a connecting member (250; 250a-250f) extending between and connecting the first traction element and the second traction element ; and a resin consolidating the first bundle of fibers and entrapping the connecting member (250; 250a-250f) to fix a position of the first traction element , the second traction element , and the connecting member (250; 250a-250f) relative to the substrate (228; 228a, 228b), characterized in that at least one of the first traction element , the second traction element , and the connecting member (250; 250a-250f) includes a projection (252; 252b-252f) extending in a direction toward the substrate (228; 228a, 228b). a component including a first bundle of fibers affixed to a substrate (228; 228a, 228b); a ground-engaging assembly (218; 218a-218f) including a first traction element , a second traction element , and a connecting member (250; 250a-250f) extending between and connecting the first traction element and the second traction element ; and a resin consolidating the first bundle of fibers and entrapping the connecting member (250; 250a-250f) to fix a position of the first traction element , the second traction element , and the connecting member (250; 250a-250f) relative to the substrate (228; 228a, 228b), characterized in that at least one of the first traction element , the second traction element , and the connecting member (250; 250a-250f) includes a projection (252; 252b-252f) extending in a direction toward the substrate (228; 228a, 228b).
A method comprising: displaying, at an electronic device , a plurality of notifications , indicative of a plurality of information reception events on a lock screen via a display of the electronic device while the electronic device is in a lock state; in response to receiving a first touch input on the display with respect to one of the plurality of notifications displayed on the lock screen, altering a form of the one of the plurality of notifications to distinguish the one of the plurality of notifications from the rest of the plurality of notifications while the electronic device is in the lock state; and in response to receiving a second touch input on the display with respect to the altered notification, transitioning from the lock state to an unlock state and activating a user function corresponding to the one of the plurality of notifications. displaying, at an electronic device , a plurality of notifications , indicative of a plurality of information reception events on a lock screen via a display of the electronic device while the electronic device is in a lock state; in response to receiving a first touch input on the display with respect to one of the plurality of notifications displayed on the lock screen, altering a form of the one of the plurality of notifications to distinguish the one of the plurality of notifications from the rest of the plurality of notifications while the electronic device is in the lock state; and in response to receiving a second touch input on the display with respect to the altered notification, transitioning from the lock state to an unlock state and activating a user function corresponding to the one of the plurality of notifications.
Hammer drill and/or percussion hammer, having - a combustion engine , having a cylinder and a piston which is movable in the cylinder ; - a percussion mechanism which is driven by the combustion engine ; - a cooling air fan for generating a cooling air flow; and having - a cooling air duct for conducting the cooling air flow from the cooling air fan along an outer wall of the cylinder ; characterised in that - the percussion mechanism is driven by the combustion engine via a transmission ; - the cooling air duct has a first duct section downstream of the outer wall of the cylinder for conducting the cooling air flow to the percussion mechanism . - a combustion engine , having a cylinder and a piston which is movable in the cylinder ; - a percussion mechanism which is driven by the combustion engine ; - a cooling air fan for generating a cooling air flow; and having - a cooling air duct for conducting the cooling air flow from the cooling air fan along an outer wall of the cylinder ; - the percussion mechanism is driven by the combustion engine via a transmission ; - the cooling air duct has a first duct section downstream of the outer wall of the cylinder for conducting the cooling air flow to the percussion mechanism .
High-pressure fuel pump for a fuel system for an internal combustion engine, with an inlet for supplying fuel, with an outlet for dispensing compressed fuel, with a pump housing , a delivery chamber arranged in the pump housing , with a pump piston which is movable in the pump housing along a longitudinal direction (LA) and delimits the delivery chamber , with an inlet valve which is arranged between the inlet and the delivery chamber and opens towards the delivery chamber , with an outlet valve which is arranged between the delivery chamber and the outlet and opens away from the delivery chamber , with a high-pressure region which extends fluidically between the outlet valve and the outlet , with a low-pressure region which extends fluidically between the inlet and the inlet valve , and with a pressure-limiting valve which fluidically connects the high-pressure region to the low-pressure region and opens towards the low-pressure region , so that fuel flows out of the high-pressure region into the low-pressure region when the pressure difference between fuel in the high-pressure region and fuel in the low-pressure region exceeds an opening pressure, wherein the pump housing comprises a pump body and a pump cover which are connected to each other, wherein a damping region belonging to the low-pressure region is delimited by the pump body and the pump cover , in which damping region at least one diaphragm damper is arranged, wherein the pressure-limiting valve fluidically connects the high-pressure region to the damping region and opens towards the damping region , so that fuel flows out of the high-pressure region into the damping region when the pressure difference between fuel in the high-pressure region and fuel in the low-pressure region exceeds the opening pressure, wherein the outlet valve is fixed in an outlet valve bore of the pump housing , wherein the pressure-limiting valve is fixed in a pressure-limiting valve bore of the pump housing , and wherein the outlet valve bore and the pressure-limiting valve bore extend in mutually geometrically parallel planes perpendicular to the longitudinal direction (LA), wherein the pressure-limiting valve bore is connected to the damping region by a low-pressure connection bore lying in the low-pressure region , characterized in that the cross section of the low-pressure connection bore is 5% to 35% smaller than the cross section of the pressure-limiting valve bore .
A method for moving a heavy object , such as an energy storage or transformation device , into a confined space , the confined space being at least partly defined by a supporting surface for supporting the heavy objects in a final position (P4), the method comprising: - providing (S10) the heavy object in an initial position (P1), the heavy object having an underside resting on a ground surface and comprising an inducible gas-cushion arrangement which in its inactive state cause the underside of the heavy object to maintain contact with the ground surface ; - activating (S20) the inducible gas-cushion arrangement by forming a gas cushion between the underside of the heavy object and the ground surface , the gas cushion generating a lifting force causing the underside of the heavy object to lose contact with the ground surface , the method being characterized by : - moving (S30, S50) the heavy object relative the confined space until the underside of the heavy object at least levels with the supporting surface of the confined space , and - moving (S70) the heavy object into its final position (P4) in the confined space and onto the supporting surface of the confined space utilizing the lifting force of the gas-cushion . - providing (S10) the heavy object in an initial position (P1), the heavy object having an underside resting on a ground surface and comprising an inducible gas-cushion arrangement which in its inactive state cause the underside of the heavy object to maintain contact with the ground surface ; - activating (S20) the inducible gas-cushion arrangement by forming a gas cushion between the underside of the heavy object and the ground surface , the gas cushion generating a lifting force causing the underside of the heavy object to lose contact with the ground surface , the method being characterized by : - moving (S30, S50) the heavy object relative the confined space until the underside of the heavy object at least levels with the supporting surface of the confined space , and - moving (S70) the heavy object into its final position (P4) in the confined space and onto the supporting surface of the confined space utilizing the lifting force of the gas-cushion .
Electric system of a vehicle which includes an electronically controlled brake system EBS, comprising: - a steering angle sensor unit that measures the steering angle of a steering wheel; - at least one control module ; - at least one first inertia sensor ; and - an electronic braking system central control unit EBS ECU of the electronically controlled brake system EBS; wherein, the at least one control module is external to the steering angle sensor unit ; and wherein, the at least one control module is external to the electronic braking system central control unit EBS ECU ; characterised in that, at least one of the at least one control module has mounted in it, within it or on it one of the at least one first inertia sensor , and in that the at least one control module in, on or within which is mounted the one of the at least one first inertia sensor is configured to be in communication contact with the electronic braking system central control unit EBS ECU . - a steering angle sensor unit that measures the steering angle of a steering wheel; - at least one control module ; - at least one first inertia sensor ; and - an electronic braking system central control unit EBS ECU of the electronically controlled brake system EBS; wherein, the at least one control module is external to the steering angle sensor unit ; and wherein, the at least one control module is external to the electronic braking system central control unit EBS ECU ; characterised in that, at least one of the at least one control module has mounted in it, within it or on it one of the at least one first inertia sensor , and in that the at least one control module in, on or within which is mounted the one of the at least one first inertia sensor is configured to be in communication contact with the electronic braking system central control unit EBS ECU . wherein, the at least one control module is external to the steering angle sensor unit ; and wherein, the at least one control module is external to the electronic braking system central control unit EBS ECU ;
Spiraled timepiece spring with a two-phase structure, characterised in that the material of said spiral spring is a binary alloy including niobium and titanium, and which includes: - niobium: the remainder to 100%; - a proportion by mass of titanium greater than or equal to 45.0% of the total and less than or equal to 48.0% of the total; - traces of other components among O, H, C, Fe, Ta, N, Ni, Si, Cu, Al, each of said trace components being comprised between 0 and 1600 ppm of the total by mass, and the sum of said traces being less than or equal to 0.3% by mass, and characterised in that said spiral spring has a two-phase microstructure comprising a solid solution of niobium with β-phase titanium and a solid solution of niobium with α-phase titanium, the α-phase titanium content being greater than 10% by volume. - niobium: the remainder to 100%; - a proportion by mass of titanium greater than or equal to 45.0% of the total and less than or equal to 48.0% of the total; - traces of other components among O, H, C, Fe, Ta, N, Ni, Si, Cu, Al, each of said trace components being comprised between 0 and 1600 ppm of the total by mass, and the sum of said traces being less than or equal to 0.3% by mass, and characterised in that said spiral spring has a two-phase microstructure comprising a solid solution of niobium with β-phase titanium and a solid solution of niobium with α-phase titanium, the α-phase titanium content being greater than 10% by volume.
A composite comprising a polyethylene and within a range from 1 wt% to 25 wt% of at least one cyclic-olefin copolymer by weight of the composition, wherein the cyclic-olefin copolymer has a glass transition temperature (Tg) of at least 30°C, characterized in that the polyethylene is LLDPE, optionally together with LDPE and/or HDPE, the LLDPE being produced using metal catalyst and having a g'vis of 0.8, or 0.85 to 0.95 or 1; wherein Tg is determined by differential scanning calorimetry on the second heating cycle as described herein; and g'vis is determined as described herein by using a high temperature GPC equipped with three in-line detectors, namely a differential refractive index detector, a light scattering detector, in conjunction with a viscosimeter. Tg is determined by differential scanning calorimetry on the second heating cycle as described herein; and g'vis is determined as described herein by using a high temperature GPC equipped with three in-line detectors, namely a differential refractive index detector, a light scattering detector, in conjunction with a viscosimeter.
A test method comprising dividing blastic plasmacytoid dendritic cell neoplasm (BPDCN) into at least two subtypes by testing at least any one of immunoblastoid morphology, 8q24 rearrangement, and MYC expression in BPDCN, followed by classifying the BPDCN into a BPDCN subtype that shows at least one of expressing MYC, showing 8q24 rearrangement, and exhibiting an immunoblastoid morphology, or into a BPDCN subtype that does not show at least one of expressing MYC, showing 8q24 rearrangement, and exhibiting an immunoblastoid morphology. dividing blastic plasmacytoid dendritic cell neoplasm (BPDCN) into at least two subtypes by testing at least any one of immunoblastoid morphology, 8q24 rearrangement, and MYC expression in BPDCN, followed by classifying the BPDCN into a BPDCN subtype that shows at least one of expressing MYC, showing 8q24 rearrangement, and exhibiting an immunoblastoid morphology, or into a BPDCN subtype that does not show at least one of expressing MYC, showing 8q24 rearrangement, and exhibiting an immunoblastoid morphology.