mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a process cartridge (C), detachably mounted in an image formation apparatus, the image formation apparatus configured with a power output unit that is swingable, wherein an outer circumference of the power output unit contains a recessed portion , the process cartridge (C) comprising a power receiving unit (a100), and the power receiving unit (a100) comprising: a fixing protrusion (a111), wherein: the fixing protrusion (a111) is disposed inside the power receiving unit (a100), and the fixing protrusion (a111) is engaged with the recessed portion of the power output unit to receive a driving force, characterized in that the power receiving unit (a100) is configured to, when the power receiving unit (a100) moves along an axial direction (Z1) thereof and is in a contact engagement with the power output unit , have the fixing protrusion (a111) abut against a front end of the power output unit to cause the power output unit to be tilted and swung. the fixing protrusion (a111) is disposed inside the power receiving unit (a100), and the fixing protrusion (a111) is engaged with the recessed portion of the power output unit to receive a driving force, characterized in that the power receiving unit (a100) is configured to, when the power receiving unit (a100) moves along an axial direction (Z1) thereof and is in a contact engagement with the power output unit , have the fixing protrusion (a111) abut against a front end of the power output unit to cause the power output unit to be tilted and swung.
A fire-resistant material, comprising: a base material, a siloxane polymer and a phosphonate polymer, wherein the siloxane polymer comprises at least one of a polyimide siloxane copolymer, polyetherimide siloxane copolymer, polyetherimide sulfone siloxane copolymer, polyimide polysiloxane block copolymers, polyetherimide polysiloxane block copolymers, polyetherimide sulfone polysiloxane block copolymer, and copolymers and blends thereof. a base material, a siloxane polymer and a phosphonate polymer, wherein the siloxane polymer comprises at least one of a polyimide siloxane copolymer, polyetherimide siloxane copolymer, polyetherimide sulfone siloxane copolymer, polyimide polysiloxane block copolymers, polyetherimide polysiloxane block copolymers, polyetherimide sulfone polysiloxane block copolymer, and copolymers and blends thereof.
An aircraft comprising an oxygen supply subsystem configured to supply oxygen to a cockpit and/or cabin of the aircraft, the oxygen supply subsystem comprising: an emergency oxygen system including a pressure sensor configured to detect a cabin decompression event on the aircraft; an environmental control system ECS including an environmental control unit ECU and an air distribution subsystem configured to distribute conditioned air from the ECU to the cockpit and/or cabin of the aircraft; an air separator configured to receive a pressurized air stream, to separate the pressurized air stream into oxygen enriched air and an inert gas; a controller arranged to receive input from the pressure sensor and an oxygen sensor configured to measure oxygen content at the oxygen supply subsystem; and a manifold coupled to the controller, wherein in response to the cabin decompression event, the controller is configured to control the manifold responsive to input from the pressure sensor and the oxygen sensor to feed the oxygen enriched air from the air separator to both the emergency oxygen system and the air distribution subsystem. an oxygen supply subsystem configured to supply oxygen to a cockpit and/or cabin of the aircraft, the oxygen supply subsystem comprising: an emergency oxygen system including a pressure sensor configured to detect a cabin decompression event on the aircraft; an environmental control system ECS including an environmental control unit ECU and an air distribution subsystem configured to distribute conditioned air from the ECU to the cockpit and/or cabin of the aircraft; an air separator configured to receive a pressurized air stream, to separate the pressurized air stream into oxygen enriched air and an inert gas; a controller arranged to receive input from the pressure sensor and an oxygen sensor configured to measure oxygen content at the oxygen supply subsystem; and a manifold coupled to the controller, wherein in response to the cabin decompression event, the controller is configured to control the manifold responsive to input from the pressure sensor and the oxygen sensor to feed the oxygen enriched air from the air separator to both the emergency oxygen system and the air distribution subsystem.
Method for producing a knitted article on a flatbed knitting machine which comprises at least one first needle bed (V, H) in which needles (A - K, a - k) are arranged so that they can be driven out by a knitting system, and at least two autonomously driven yarn guides and a knitting system, wherein the yarn guides and the knitting system can be moved in parallel with the longitudinal direction of the needle bed (V, H), in which method a. stitches of the knitted article are formed by means of the knitting system and at least the first yarn guide, by moving the knitting system in a knitting direction and thereby driving out needles (A - K, a - k) of a first region and a second region that follows in the knitting direction, and inserting yarn into the driven-out needles of the first region, b. then, with the needles of the second region driven out, the first yarn guide is moved so far counter to the knitting direction that the yarn guided thereby can no longer be grasped by needles and c. then a yarn is inserted, by the second yarn guide, into the needles of the second region that are driven out by the knitting system. a. stitches of the knitted article are formed by means of the knitting system and at least the first yarn guide, by moving the knitting system in a knitting direction and thereby driving out needles (A - K, a - k) of a first region and a second region that follows in the knitting direction, and inserting yarn into the driven-out needles of the first region, b. then, with the needles of the second region driven out, the first yarn guide is moved so far counter to the knitting direction that the yarn guided thereby can no longer be grasped by needles and c. then a yarn is inserted, by the second yarn guide, into the needles of the second region that are driven out by the knitting system.
A method of manufacturing a fiber reinforced polymer material lid for an utility vault comprising the steps of: mixing an unsaturated polyester thermosetting material into a resin paste ; compounding the paste into a fiber reinforced composite material sheet ; maturing the compounded fiber reinforced composite material sheet ; cutting the matured compound sheet into a charge pattern ; molding the charge pattern in a mold cavity of a heated mold under low pressure to form the lid ; and cooling and machining the lid . mixing an unsaturated polyester thermosetting material into a resin paste ; compounding the paste into a fiber reinforced composite material sheet ; maturing the compounded fiber reinforced composite material sheet ; cutting the matured compound sheet into a charge pattern ; molding the charge pattern in a mold cavity of a heated mold under low pressure to form the lid ; and cooling and machining the lid .
An integrated digital microfluidics nanopore device for analyte detection comprising: a digital microfluidics module; and a nanopore module fluidically connected to the digital microfluidics module and comprising at least one nanopore in a layer, wherein the digital microfluidics module facilitates movement of a droplet to the at least one nanopore. a digital microfluidics module; and a nanopore module fluidically connected to the digital microfluidics module and comprising at least one nanopore in a layer, wherein the digital microfluidics module facilitates movement of a droplet to the at least one nanopore.
A wireless power transfer system for a medical device, comprising a transmitter unit and a receiver unit, wherein the wireless power transfer system is operable to transfer, between the transmitter unit and the receiver unit, at least one of: power, and a signal; wherein the transmitter unit comprises an energy source, a transmitter antenna, and a supply line coupling the energy source to the antenna; wherein the receiver unit comprises a receiver antenna and a rectifier output; wherein the transmitter antenna and the receiver antenna are operable to provide a wireless power transfer link between them; and wherein the supply line comprises a virtual resistance unit operable to provide a virtual resistance, and characterized in that the virtual resistance unit is operable to provide a non-linear resistance in the supply line. wherein the transmitter unit comprises an energy source, a transmitter antenna, and a supply line coupling the energy source to the antenna; wherein the receiver unit comprises a receiver antenna and a rectifier output; wherein the transmitter antenna and the receiver antenna are operable to provide a wireless power transfer link between them; and wherein the supply line comprises a virtual resistance unit operable to provide a virtual resistance, and characterized in that the virtual resistance unit is operable to provide a non-linear resistance in the supply line.
A non-aqueous, homogeneous solution comprising a solubilized lipophilic pharmaceutical agent and an amphiphilic liquid polymeric solvent, which is liquid polyethylene glycol (PEG), the formulation being essentially free of non-polymeric organic solvents, water and non-solubilized particles, wherein the lipophilic pharmaceutical agent is an antifungal azole or is the anticancer agent busulfan (1,4 butanediol dimethanesulfonate), and wherein the solubilized lipophilic pharmaceutical agent has a concentration of at least 2 mg/mL, the non-aqueous, homogeneous solution for use in a method for treating a subject having a disease or condition sensitive to a selected lipophilic pharmaceutical agent, comprising parenterally administering to the subject a therapeutically effective amount of a composition comprising the solution, wherein the lipophilic pharmaceutical agent is the selected lipophilic pharmaceutical agent, wherein the subject preferably is a mammal, in particular wherein the subject preferably is a human, wherein the non-aqueous, homogeneous solution preferably is for intravascular, intracavitari, intrathecal, subcutaneous, intramuscular, or topical administration.
An ascorbic acid formulation satisfying all of the following requirements: 1: the ascorbic acid formulation being in the form of a water-in-oil type emulsion, 2: the ascorbic acid formulation comprising an aqueous phase having an average particle size of 300 nm or less, 3: the ascorbic acid formulation having a mass ratio of water/ascorbic acid of 0.05 to 0.40, and 4: the aqueous phase having a pH of 4 or more. 1: the ascorbic acid formulation being in the form of a water-in-oil type emulsion, 2: the ascorbic acid formulation comprising an aqueous phase having an average particle size of 300 nm or less, 3: the ascorbic acid formulation having a mass ratio of water/ascorbic acid of 0.05 to 0.40, and 4: the aqueous phase having a pH of 4 or more.
Pivoting door having a sealing device , in particular for a pivoting door having a pivot axis running through the door leaf , having a seal housing , a sealing strip and a mechanism for displacing the sealing strip relative to the seal housing , wherein the mechanism comprises a triggering element which, upon being subjected to an external force, causes the mechanism to displace the sealing strip relative to the seal housing , characterized in that the triggering element is assigned a transmission element which is arranged on the door leaf rebate opposite to the door lock and which partially or completely covers the triggering element in the triggering direction thereof and forms a ramp-shaped run-on surface, and transmits the externally acting force onto the triggering element .
A probe apparatus comprising: a main body ; and a head which is detachably provided in the main body, and comprises a transducer array configured to output an ultrasound for diagnosis of an object, the main body comprising: a transceiver configured to transmit and receive a signal to and from the transducer array through a plurality of channels; and at least one processor configured to control the transceiver to transmit a predetermined test signal to the transducer array of the head mounted to the main body, determine a probe type corresponding to the transducer array of the mounted head based on a feedback signal received through the transceiver in response to the test signal, and make the probe apparatus operate corresponding to the determined probe type, wherein the processor is configured to detect level of the feedback signal, to determine impedance of the transducer array based on the detected signal level, and to adjust a level of power supplied to the transducer array to correspond to the determined impedance. a main body ; and a head which is detachably provided in the main body, and comprises a transducer array configured to output an ultrasound for diagnosis of an object, the main body comprising: a transceiver configured to transmit and receive a signal to and from the transducer array through a plurality of channels; and at least one processor configured to control the transceiver to transmit a predetermined test signal to the transducer array of the head mounted to the main body, determine a probe type corresponding to the transducer array of the mounted head based on a feedback signal received through the transceiver in response to the test signal, and make the probe apparatus operate corresponding to the determined probe type, a transceiver configured to transmit and receive a signal to and from the transducer array through a plurality of channels; and at least one processor configured to control the transceiver to transmit a predetermined test signal to the transducer array of the head mounted to the main body, determine a probe type corresponding to the transducer array of the mounted head based on a feedback signal received through the transceiver in response to the test signal, and make the probe apparatus operate corresponding to the determined probe type, wherein the processor is configured to detect level of the feedback signal, to determine impedance of the transducer array based on the detected signal level, and to adjust a level of power supplied to the transducer array to correspond to the determined impedance.
Battery pack for supplying an electrically driven treatment apparatus with an electric driving power (AL), the battery pack comprising: - a plurality of pouch cells , wherein the pouch cells have cell tabs and are configured and disposed in a stack such that the cell tabs are disposed on a common tab side of the stack in two tab columns , wherein averted end limits of the tab columns define an intermediate zone , and - a circuit board , wherein the circuit board is disposed only within the intermediate zone and is electrically connected to the cell tabs . - a plurality of pouch cells , wherein the pouch cells have cell tabs and are configured and disposed in a stack such that the cell tabs are disposed on a common tab side of the stack in two tab columns , wherein averted end limits of the tab columns define an intermediate zone , and - a circuit board , wherein the circuit board is disposed only within the intermediate zone and is electrically connected to the cell tabs .
A tire comprising: a tread portion provided with at least one main groove extending continuously in the tire circumferential direction to axially divide the tread portion into land portions , wherein at least one of the land portions is provided with axial grooves extending in a tire axial direction and each comprising a radially outer portion and a radially inner portion which is wider than the radially outer portion , and at least the radially outer portion of each of the axial grooves is crossed by a sipe , characterized in that each of the axial grooves is curved in an arc shape in its top view. a tread portion provided with at least one main groove extending continuously in the tire circumferential direction to axially divide the tread portion into land portions , wherein at least one of the land portions is provided with axial grooves extending in a tire axial direction and each comprising a radially outer portion and a radially inner portion which is wider than the radially outer portion , and at least the radially outer portion of each of the axial grooves is crossed by a sipe ,
A composition comprising a plurality of particles , wherein said particles comprise: 40% to 95% by weight polyethylene glycol , wherein said polyethylene glycol has a weight average molecular weight from 5000 to 11000; 0.1% to 20% by weight perfume ; and 0.1% to 50% by weight starch granules , wherein said starch granules have a dextrose equivalent from 0 to 40, wherein said starch granules have a grain size of from 1 μm to 500 μm, and wherein said starch granules have a starch perfume load level of said perfume on said starch granules of from 0% to 10% by weight of said starch granules; wherein said particles are homogenously structured particles, a homogenously structured particle is a particle in which the component materials forming the particle are homogeneously mixed with one another; and wherein each of said particles has a mass between 0.95 mg to 5 grams. 40% to 95% by weight polyethylene glycol , wherein said polyethylene glycol has a weight average molecular weight from 5000 to 11000; 0.1% to 20% by weight perfume ; and 0.1% to 50% by weight starch granules , wherein said starch granules have a dextrose equivalent from 0 to 40, wherein said starch granules have a grain size of from 1 μm to 500 μm, and wherein said starch granules have a starch perfume load level of said perfume on said starch granules of from 0% to 10% by weight of said starch granules; wherein said particles are homogenously structured particles, a homogenously structured particle is a particle in which the component materials forming the particle are homogeneously mixed with one another; and wherein each of said particles has a mass between 0.95 mg to 5 grams.
A method for the structured passivation of an endless belt , comprising the steps - spanning the endless belt between at least two deflection rollers , at least one of which is driven, - applying a mask onto the endless belt for the structured passivation of the same with the aid of a nozzle head/print head using the digital jet printing method, wherein the applied mask is made of a light-curable mask material or at least contains such components, and - at least partially irradiating the mask by means of a light source suitable for curing after the application, characterized in that - the application of the mask onto the endless belt takes place in the region of a deflection roller and - before applying the mask, a positional mark and/or a measuring standard (C) adjusted to the length of the endless belt is applied to the endless belt . - spanning the endless belt between at least two deflection rollers , at least one of which is driven, - applying a mask onto the endless belt for the structured passivation of the same with the aid of a nozzle head/print head using the digital jet printing method, wherein the applied mask is made of a light-curable mask material or at least contains such components, and - at least partially irradiating the mask by means of a light source suitable for curing after the application, - the application of the mask onto the endless belt takes place in the region of a deflection roller and - before applying the mask, a positional mark and/or a measuring standard (C) adjusted to the length of the endless belt is applied to the endless belt .
A microsphere comprising an outer shell and a foaming agent sealed into the outer shell, wherein: (i) the foaming agent includes a compound that vaporizes and becomes a gas upon being heated; and when the average particle size (D50) of the microsphere is given as A (μm) and the amount of the foaming agent for said microsphere as B1 (mass%), relationships in Relationships , and are satisfied: 60 ≤ A ≤ 120 − 0.14 × A + 27 ≤ B 1 ≤ − 0.14 × A + 33 or (ii) the outer shell is constructed from a polymer of a monomer including a polymerizable monomer; the foaming agent includes a compound that vaporizes and becomes a gas upon being heated; and when the average particle size (D50) of said microsphere is given as A (μm) and the amount of the foaming agent for said microsphere as B2 (parts by mass), relationships in Relationships , and are satisfied: 60 ≤ A ≤ 120 − 0.22 × A + 39 ≤ B 2 ≤ − 0.22 × A + 43 where, B2 represents the parts by mass of the foaming agent when the parts by mass of the polymerizable monomer is 100, characterized in that a density of foamed particles produced when the microspheres are caused to foam is 0.024 g/ml or less, as defined under the heading "foamed particle density measurement" of the examples. (i) the foaming agent includes a compound that vaporizes and becomes a gas upon being heated; and when the average particle size (D50) of the microsphere is given as A (μm) and the amount of the foaming agent for said microsphere as B1 (mass%), relationships in Relationships , and are satisfied: 60 ≤ A ≤ 120 − 0.14 × A + 27 ≤ B 1 ≤ − 0.14 × A + 33 or (ii) the outer shell is constructed from a polymer of a monomer including a polymerizable monomer; the foaming agent includes a compound that vaporizes and becomes a gas upon being heated; and when the average particle size (D50) of said microsphere is given as A (μm) and the amount of the foaming agent for said microsphere as B2 (parts by mass), relationships in Relationships , and are satisfied: 60 ≤ A ≤ 120 − 0.22 × A + 39 ≤ B 2 ≤ − 0.22 × A + 43 where, B2 represents the parts by mass of the foaming agent when the parts by mass of the polymerizable monomer is 100,
A waterproof panel for a shower tray, adapted to be placed over a foundation, to be interposed between the latter and a floor covering layer, said panel comprising at least one plate-like element and a waterproof covering which is applied on top of said at least one plate-like element , the waterproof panel having, on a lower face for adhesion to the foundation, low-relief portions adapted to accommodate adhesive for the adhesion of said panel to said foundation, characterized in that said low-relief portions have an undercut cross-section adapted to retain the adhesive that is deposited in them following the laying of the panel on the foundation on which a layer of the adhesive is applied and wherein the curing of the adhesive ensures the adhesion of the panel to the foundation and at the same time the undercut low-relief portions prevent the separation of the cured adhesive from the lower surface of the panel.