mhurhangee/patent-ind-claim-en huggingface dataset:
A cable transportation system comprising: - a plurality of transporting units ; - at least one station ; - at least one cable for driving the transporting units outside the station ; the station comprising: - an inlet and an outlet for the transporting units respectively provided with an uncoupling device for uncoupling the transporting units from the cable and a coupling device for coupling the transporting units to the cable ; - a guiding device for guiding the transporting units uncoupled from the cable inside the station ; - an advancing auxiliary device for moving the transporting units along the guiding device ; - a control unit ; characterized in that the control unit is configured for operating the advancing auxiliary device so that it can switch, with no service interruption, from a first configuration, wherein outside the station the transporting units are individually arranged equidistant from each other (d) and the boarding and landing operations occur inside the station without stopping the advancing movement, to a second configuration, wherein outside the station the transporting units are arranged in equidistant (D) compact groups of at least two units and the boarding and landing operations occur inside the station by temporarily stopping the advancing movement of the transporting units , and vice versa. - a plurality of transporting units ; - at least one station ; - at least one cable for driving the transporting units outside the station ; - an inlet and an outlet for the transporting units respectively provided with an uncoupling device for uncoupling the transporting units from the cable and a coupling device for coupling the transporting units to the cable ; - a guiding device for guiding the transporting units uncoupled from the cable inside the station ; - an advancing auxiliary device for moving the transporting units along the guiding device ; - a control unit ;
A contactor coil control circuit, suitable for controlling a coil of the contactor, comprising a freewheel diode (D1), a first MOS (Metal Oxide Semiconductor) transistor (TR1), a fast turn-off circuit, a drive circuit and a switch control circuit, the fast turn-off circuit, which forms a freewheel loop with the freewheel diode (D1), and is configured to provide a low-impedance path for the freewheel loop in pull-in and holding stages and provide a high-impedance path for the freewheel loop in a turn-off stage; the drive circuit, which is configured to provide a drive voltage for the fast turn-off circuit; the switch control circuit, which is configured to control the operation of the first MOS transistor (TR1), characterized in that the fast turn-off circuit comprises a second MOS transistor (TR2); the drive circuit comprises a capacitor (C1); the switch control circuit comprises a third MOS transistor (TR3), a fourth MOS transistor (TR4) and a current supply end; the capacitor (C1) is connected in parallel between the gate and the source of the second MOS transistor (TR2); the current from the current supply end charges the capacitor (C1) through a path formed by a body diode of the fourth MOS transistor (TR4), a body diode of the second MOS transistor (TR2) and the first MOS transistor (TR1); and when the second MOS transistor (TR2) is conducted, the capacitor (C1) continuously supplies power to the gate of the second MOS transistor (TR2) to enable the second MOS transistor (TR2) to be conducted in a saturated manner. the fast turn-off circuit, which forms a freewheel loop with the freewheel diode (D1), and is configured to provide a low-impedance path for the freewheel loop in pull-in and holding stages and provide a high-impedance path for the freewheel loop in a turn-off stage; the drive circuit, which is configured to provide a drive voltage for the fast turn-off circuit; the switch control circuit, which is configured to control the operation of the first MOS transistor (TR1), characterized in that the fast turn-off circuit comprises a second MOS transistor (TR2); the drive circuit comprises a capacitor (C1); the switch control circuit comprises a third MOS transistor (TR3), a fourth MOS transistor (TR4) and a current supply end; the capacitor (C1) is connected in parallel between the gate and the source of the second MOS transistor (TR2); the current from the current supply end charges the capacitor (C1) through a path formed by a body diode of the fourth MOS transistor (TR4), a body diode of the second MOS transistor (TR2) and the first MOS transistor (TR1); and when the second MOS transistor (TR2) is conducted, the capacitor (C1) continuously supplies power to the gate of the second MOS transistor (TR2) to enable the second MOS transistor (TR2) to be conducted in a saturated manner.
A copolymer, which is a fluorine-containing copolymer of formula : wherein R a1 is a mono- or divalent group containing a perfluoropolyether group, X a is -O-, phenylene, -N(-R E )- (R E is an organic group), or carbazolylene, R a2 is H or alkyl, R a3 is H or alkyl, R b1 each independently is H or alkyl, R b2 each independently is H or an organic group optionally having a hydroxyl group, R b3 is H or alkyl, X b is -O-, phenylene, -N(-R E )- (R E is an organic group), or carbazolylene, with the proviso that if R b2 is H, X b is phenylene, R c is H, methyl, a perfluoropolyether group-containing group, or an organic group optionally having a hydroxyl group, X c is -O-, -S-, -NH-, or a single bond, k s 1 or 2, and n1 is an integer of ≥ 1, with the proviso that at least one or both of R a2 or R a3 is alkyl, and if R c is not an organic group having a hydroxyl group, at least one R b2 is an organic group having a hydroxyl group. R a1 is a mono- or divalent group containing a perfluoropolyether group, X a is -O-, phenylene, -N(-R E )- (R E is an organic group), or carbazolylene, R a2 is H or alkyl, R a3 is H or alkyl, R b1 each independently is H or alkyl, R b2 each independently is H or an organic group optionally having a hydroxyl group, R b3 is H or alkyl, X b is -O-, phenylene, -N(-R E )- (R E is an organic group), or carbazolylene, with the proviso that if R b2 is H, X b is phenylene, R c is H, methyl, a perfluoropolyether group-containing group, or an organic group optionally having a hydroxyl group, X c is -O-, -S-, -NH-, or a single bond, k s 1 or 2, and n1 is an integer of ≥ 1,
A transparent protective layer (100; 400A; 400B; 500A; 500B; 800; 1100; 1300), comprising: a first transparent plate having a first surface facing in a first direction and a second surface (11 0b) facing in a second direction opposite to the first direction; a second transparent plate having a first surface facing in the first direction and a second surface facing in the second direction; and an adhesive layer disposed between the second surface of the first transparent plate and the first surface of the second transparent plate , wherein the adhesive layer includes a first adhesive layer having a first adhesive force between the first adhesive layer and the first transparent plate , and a second adhesive layer having a second adhesive force between the second adhesive layer and the second transparent plate , which is less than the first adhesive force, and a third transparent plate disposed between the first adhesive layer and the second adhesive layer , wherein the third transparent plate comprises an opening formed therein, wherein the opening is disposed at a position corresponding to a camera . a first transparent plate having a first surface facing in a first direction and a second surface (11 0b) facing in a second direction opposite to the first direction; a second transparent plate having a first surface facing in the first direction and a second surface facing in the second direction; and an adhesive layer disposed between the second surface of the first transparent plate and the first surface of the second transparent plate , wherein the adhesive layer includes a first adhesive layer having a first adhesive force between the first adhesive layer and the first transparent plate , and a second adhesive layer having a second adhesive force between the second adhesive layer and the second transparent plate , which is less than the first adhesive force, and a third transparent plate disposed between the first adhesive layer and the second adhesive layer , wherein the third transparent plate comprises an opening formed therein, wherein the opening is disposed at a position corresponding to a camera .
Adapter for a rolling assembly of rotation axis X-X' comprising a tyre , having two beads and a rim , the adapter being intended to provide the join between one of the beads and the rim , said adapter comprising an axially inner end , an axially outer end and a body oriented principally axially and arranged between said axially outer end and said axially inner end , such that, when mounted within the assembly, said axially inner end is intended to be immobilized on said rim by means of an inner reinforcing element , said axially outer end comprising an outer reinforcing element is intended to receive a bead of a tyre , characterized in that the axially outer end includes a visible face designed to reveal the axially outer faces of several inserts fastened to the extender and distributed about the circumference of said visible face .
Method for preparing a structured water-soluble polymer of weight-average molecular weight greater than 1 million Daltons and having a Huggins coefficient K H greater than 0.4, the Huggins coefficient K H being measured at a polymer weight concentration of 5 g.L-1, in a 0.4 N aqueous solution of sodium nitrate, at pH 3.5 and a temperature of 25°C, the method comprises the following successive steps: a) Preparing a polymer, in the form of a gel, by free-radical polymerization in aqueous solution at an initiation temperature between -20°C and +50°C of at least one water-soluble monounsaturated ethylenic monomer, the total weight concentration of monomer(s) in relation to the polymerization charge being between 10 and 60%; b) Granulating the resulting polymer gel; c) Drying the polymer gel to obtain a polymer in powder form; d) Grinding and sifting the powder; at least 10% by weight of water-soluble polymer, based on the total weight of the water-soluble monounsaturated ethylenic monomer or monounsaturated ethylenic monomers used in step a), being added during the polymerization step a) and optionally during the granulation step b), the water-soluble polymer being structured and added as a water-in-oil inverse emulsion or dispersion in oil. a) Preparing a polymer, in the form of a gel, by free-radical polymerization in aqueous solution at an initiation temperature between -20°C and +50°C of at least one water-soluble monounsaturated ethylenic monomer, the total weight concentration of monomer(s) in relation to the polymerization charge being between 10 and 60%; b) Granulating the resulting polymer gel; c) Drying the polymer gel to obtain a polymer in powder form; d) Grinding and sifting the powder; at least 10% by weight of water-soluble polymer, based on the total weight of the water-soluble monounsaturated ethylenic monomer or monounsaturated ethylenic monomers used in step a), being added during the polymerization step a) and optionally during the granulation step b), the water-soluble polymer being structured and added as a water-in-oil inverse emulsion or dispersion in oil. at least 10% by weight of water-soluble polymer, based on the total weight of the water-soluble monounsaturated ethylenic monomer or monounsaturated ethylenic monomers used in step a), being added during the polymerization step a) and optionally during the granulation step b), the water-soluble polymer being structured and added as a water-in-oil inverse emulsion or dispersion in oil.
A patient bed comprising: a frame configured to support a patient; and a plurality of siderails extending upwardly relative to the frame , each siderail of the plurality of siderails having an egress blocking position in which the patient is blocked from egressing off of the frame , characterized in that at least a first siderail of the plurality of siderails, being a foot rail, has a lever accessible to the patient while the patient is lying on the bed to unlock the first siderail for translational movement, in a longitudinal direction along the frame of the bed, by the patient from the egress blocking position to an out-of-the-way position to permit the patient to egress from the frame , wherein, the first siderail comprises: a hand hole , the lever being accessible in the hand hole ; and a grip handle , over the hand hole , the grip handle having a stepped bottom surface to provide grip areas for the patient, separated by steps , when moving the first siderail between the egress blocking position and the out-of-the-way position. a frame configured to support a patient; and a plurality of siderails extending upwardly relative to the frame , each siderail of the plurality of siderails having an egress blocking position in which the patient is blocked from egressing off of the frame , characterized in that at least a first siderail of the plurality of siderails, being a foot rail, has a lever accessible to the patient while the patient is lying on the bed to unlock the first siderail for translational movement, in a longitudinal direction along the frame of the bed, by the patient from the egress blocking position to an out-of-the-way position to permit the patient to egress from the frame , wherein, the first siderail comprises: a hand hole , the lever being accessible in the hand hole ; and a grip handle , over the hand hole , the grip handle having a stepped bottom surface to provide grip areas for the patient, separated by steps , when moving the first siderail between the egress blocking position and the out-of-the-way position. a hand hole , the lever being accessible in the hand hole ; and a grip handle , over the hand hole , the grip handle having a stepped bottom surface to provide grip areas for the patient, separated by steps , when moving the first siderail between the egress blocking position and the out-of-the-way position.
Method for optimizing the yield of one or more solar panels which are coupled to an electricity grid by means of a converter and maximum power point tracking module , MPPT module; and wherein the MPPT module is configured to enable the solar panels to supply a maximum power up to a predetermined upper power limit of the converter; and wherein the method comprises the following steps: a) measuring the output voltage of the solar panels; and b) based on the measured voltage, detecting if the MPPT module limits the input voltage of the converter to the predetermined upper power limit ; and c) subsequently, if the MPPT module limits the input voltage, coupling an energy-storage system in parallel to the one or more solar panels, so that it is charged by the one or more solar panels and so that the MPPT again enables the solar panels to supply the maximum power; characterised by said detecting furthermore comprises: d) calculating a voltage change of the output voltage during a specific time interval ; and e) detecting if the MPPT module limits the input power of the converter to the predetermined upper power limit if the output voltage has dropped during the specific time interval and the voltage change exceeds a certain threshold value . a) measuring the output voltage of the solar panels; and b) based on the measured voltage, detecting if the MPPT module limits the input voltage of the converter to the predetermined upper power limit ; and c) subsequently, if the MPPT module limits the input voltage, coupling an energy-storage system in parallel to the one or more solar panels, so that it is charged by the one or more solar panels and so that the MPPT again enables the solar panels to supply the maximum power; d) calculating a voltage change of the output voltage during a specific time interval ; and e) detecting if the MPPT module limits the input power of the converter to the predetermined upper power limit if the output voltage has dropped during the specific time interval and the voltage change exceeds a certain threshold value .
A method of operating a communications controller for a direct mobile communication, DMC, link for a group of user equipments, UEs, the method comprising: • allocating a set of subframes in one periodic group of subframes to the group of UEs; • in a first alternative, deriving a maximum number of Hybrid Automatic Repeat Request, HARQ, processes of the DMC link at least based on a number of UEs in the group of UEs, or in a second alternative, deriving the maximum number of HARQ processes at least based on a number of subframes within the set of allocated subframes; • signaling the allocated set of subframes to the group of UEs; and • transmitting parameters related to a group of Hybrid Automatic Repeat Request, HARQ, processes of the DMC link to the group of UEs, wherein the parameters related to the group of HARQ processes for the DMC link comprise the maximum number of HARQ processes, wherein the communication controller uses HARQ processes for cellular UE transmission that are determined independently from HARQ processes of the group of HARQ processes for the DMC link, and wherein the parameters are configured to enable the group of UEs to manage the group of HARQ processes for the DMC link. • allocating a set of subframes in one periodic group of subframes to the group of UEs; • in a first alternative, deriving a maximum number of Hybrid Automatic Repeat Request, HARQ, processes of the DMC link at least based on a number of UEs in the group of UEs, or in a second alternative, deriving the maximum number of HARQ processes at least based on a number of subframes within the set of allocated subframes; • signaling the allocated set of subframes to the group of UEs; and • transmitting parameters related to a group of Hybrid Automatic Repeat Request, HARQ, processes of the DMC link to the group of UEs, wherein the parameters related to the group of HARQ processes for the DMC link comprise the maximum number of HARQ processes, wherein the communication controller uses HARQ processes for cellular UE transmission that are determined independently from HARQ processes of the group of HARQ processes for the DMC link, and wherein the parameters are configured to enable the group of UEs to manage the group of HARQ processes for the DMC link.
A color filter substrate, comprising: a substrate ; a color filter film formed on the substrate and comprising a plurality of sub-pixel regions; and a sensing layer formed on the substrate and comprising a first metal layer , a second metal layer and an insulating layer located between the first metal layer and the second metal layer , characterized in that a part of the insulating layer of the sensing layer is made of a light shielding material forming a grid shielding boundaries between respective sub-pixel regions, and the first metal layer and the second metal layer of the sensing layer are made of a transparent conductive material, the sensing layer and the color filter film are located on the opposite sides of the substrate respectively, the first metal layer is composed of a plurality of first individual metal stripes aligned with equal spacing in a first direction and insulated from each other, the second metal layer is composed of a plurality of second individual metal stripes aligned with equal spacing in a second direction perpendicular to the first direction and insulated from each other. a substrate ; a color filter film formed on the substrate and comprising a plurality of sub-pixel regions; and a sensing layer formed on the substrate and comprising a first metal layer , a second metal layer and an insulating layer located between the first metal layer and the second metal layer , characterized in that a part of the insulating layer of the sensing layer is made of a light shielding material forming a grid shielding boundaries between respective sub-pixel regions, and the first metal layer and the second metal layer of the sensing layer are made of a transparent conductive material, the sensing layer and the color filter film are located on the opposite sides of the substrate respectively, the first metal layer is composed of a plurality of first individual metal stripes aligned with equal spacing in a first direction and insulated from each other, the second metal layer is composed of a plurality of second individual metal stripes aligned with equal spacing in a second direction perpendicular to the first direction and insulated from each other.
A phosphate coating, comprising: a phosphate portion, wherein the phosphate portion comprises pores, wherein the pores are partially filled with a corrosion inhibition sealant, wherein the corrosion inhibition sealant comprises: a base, wherein the base comprises a matrix and a metal within the matrix, wherein the metal within the matrix comprises aluminum, an aluminum alloy, zinc, a zinc alloy, magnesium, a magnesium alloy, or a combination thereof; and an inhibitor mixed within the base, wherein the inhibitor comprises zinc molybdate, magnesium metasilicate, trivalent chromium, tungstenate, a metal phosphate silicate, or a combination thereof. a phosphate portion, wherein the phosphate portion comprises pores, wherein the pores are partially filled with a corrosion inhibition sealant, wherein the corrosion inhibition sealant comprises: a base, wherein the base comprises a matrix and a metal within the matrix, wherein the metal within the matrix comprises aluminum, an aluminum alloy, zinc, a zinc alloy, magnesium, a magnesium alloy, or a combination thereof; and an inhibitor mixed within the base, wherein the inhibitor comprises zinc molybdate, magnesium metasilicate, trivalent chromium, tungstenate, a metal phosphate silicate, or a combination thereof. a base, wherein the base comprises a matrix and a metal within the matrix, wherein the metal within the matrix comprises aluminum, an aluminum alloy, zinc, a zinc alloy, magnesium, a magnesium alloy, or a combination thereof; and an inhibitor mixed within the base, wherein the inhibitor comprises zinc molybdate, magnesium metasilicate, trivalent chromium, tungstenate, a metal phosphate silicate, or a combination thereof.
A graphics processing unit , comprising: an execution unit , for performing shader execution and texture loading, wherein the shader execution comprises vertex shading and pixel shading; a fixed-function unit , for executing a graphics rendering pipeline; a memory-access unit ; a texture unit , for reading texture data from a memory via the memory-access unit according to data requirement of the execution unit or the fixed-function unit ; and a command stream parser , for receiving a draw command from a display driver , and transmitting the draw command to the execution unit or the fixed-function unit to perform graphics processing according to type of draw command; characterized in that when the command stream parser determines that the draw command is a specific draw command, the command stream parser transmits the draw command only to the fixed-function unit to perform graphics processing, and turns off power to the execution unit . an execution unit , for performing shader execution and texture loading, wherein the shader execution comprises vertex shading and pixel shading; a fixed-function unit , for executing a graphics rendering pipeline; a memory-access unit ; a texture unit , for reading texture data from a memory via the memory-access unit according to data requirement of the execution unit or the fixed-function unit ; and a command stream parser , for receiving a draw command from a display driver , and transmitting the draw command to the execution unit or the fixed-function unit to perform graphics processing according to type of draw command; characterized in that when the command stream parser determines that the draw command is a specific draw command, the command stream parser transmits the draw command only to the fixed-function unit to perform graphics processing, and turns off power to the execution unit .