mhurhangee/ep-ind-claims huggingface dataset:
A scroll type fluid machine comprising: a fixed scroll; an orbiting scroll provided to be opposed to the fixed scroll and moved to orbit, said orbiting scroll including a back side provided with a plurality of cooling fins; a casing provided on an outer side of the orbiting scroll; a driving shaft for driving the orbiting scroll; a back face plate fastened to the orbiting scroll by a fastening portion and connected to the driving shaft by a boss portion; and a rotation preventing mechanism provided between the casing and the back face plate for preventing a rotation of the orbiting scroll; wherein the back face plate includes a rotation preventing mechanism side back face plate integrally provided with the rotation preventing mechanism and a driving shaft side back face plate provided integrally with the boss portion; and the driving shaft side back face plate is brought into contact with said cooling fins formed at the back side of the orbiting scroll; and characterized in that the rotation preventing mechanism side back face plate is not in contact with the cooling fins formed at the back side of the orbiting scroll. a fixed scroll; an orbiting scroll provided to be opposed to the fixed scroll and moved to orbit, said orbiting scroll including a back side provided with a plurality of cooling fins; a casing provided on an outer side of the orbiting scroll; a driving shaft for driving the orbiting scroll; a back face plate fastened to the orbiting scroll by a fastening portion and connected to the driving shaft by a boss portion; and a rotation preventing mechanism provided between the casing and the back face plate for preventing a rotation of the orbiting scroll; wherein the back face plate includes a rotation preventing mechanism side back face plate integrally provided with the rotation preventing mechanism and a driving shaft side back face plate provided integrally with the boss portion; and the driving shaft side back face plate is brought into contact with said cooling fins formed at the back side of the orbiting scroll; and characterized in that the rotation preventing mechanism side back face plate is not in contact with the cooling fins formed at the back side of the orbiting scroll.
Apparatus for treating sleep-related respiratory disorders, configured to deliver a treatment pressure (Psetpoint) at a predetermined value at each instant to a mask (Pmask) worn by a patient, said apparatus comprising at least one air flow generator, a controller of the generator, and a flowrate and pressure sensor which makes it possible to measure the total flowrate of the air flow issuing from the apparatus (Qt) and also the outlet pressure of the apparatus (Pout), characterized in that the apparatus is configured to at each instant: - calculate the difference (Dq) between the total flowrate (Qt) and a base value (Qb) of the total flowrate, the base value (Qb) of the total flowrate corresponding to the flowrate values of leaks existing in the patient circuit; - determine a respiratory flowrate index (i) from the ratio between the difference (Dq) and a predetermined step of increment in flowrate (q); - determine a pressure compensation value (p[i]) from the respiratory flowrate index (i); and in that the apparatus additionally comprises a means of activation of a "Comfort Calibration" mode commanding the controller of the generator such that the generator delivers an air flow at a pressure (Pcomfort) as a function of the pressure compensation value (p[i]) and of the value of the treatment pressure (Psetpoint) according to the formula: Pcomfort = Psetpoint + p i where: - (Pcomfort) is the pressure delivered when the "Comfort Calibration" mode is activated, - (Psetpoint) is the pressure delivered when the "Comfort Calibration" mode is not activated, - (p[i]) is the pressure compensation value corresponding to the respiratory flowrate index (i). - calculate the difference (Dq) between the total flowrate (Qt) and a base value (Qb) of the total flowrate, the base value (Qb) of the total flowrate corresponding to the flowrate values of leaks existing in the patient circuit; - determine a respiratory flowrate index (i) from the ratio between the difference (Dq) and a predetermined step of increment in flowrate (q); - determine a pressure compensation value (p[i]) from the respiratory flowrate index (i); and in that the apparatus additionally comprises a means of activation of a "Comfort Calibration" mode commanding the controller of the generator such that the generator delivers an air flow at a pressure (Pcomfort) as a function of the pressure compensation value (p[i]) and of the value of the treatment pressure (Psetpoint) according to the formula: Pcomfort = Psetpoint + p i where: - (Pcomfort) is the pressure delivered when the "Comfort Calibration" mode is activated, - (Psetpoint) is the pressure delivered when the "Comfort Calibration" mode is not activated, - (p[i]) is the pressure compensation value corresponding to the respiratory flowrate index (i). - (Pcomfort) is the pressure delivered when the "Comfort Calibration" mode is activated, - (Psetpoint) is the pressure delivered when the "Comfort Calibration" mode is not activated, - (p[i]) is the pressure compensation value corresponding to the respiratory flowrate index (i).
A freeze protection method for heating pipe and hot water pipe of a boiler, comprising the steps of: (a) converting a three-way valve into a hot water mode and carrying out a combustion operation of the boiler via a controller's control, if temperature of heating water falls below a preset freeze protection temperature, and circulating the heating water through a closed loop including a circulation pump, a heating heat exchanger, the three-way valve and a hot water supply heat exchanger by driving the circulation pump; hereby transferring heat exchanger heat in the hot water supply from the heating water to the hot water pipe thereby preventing freezing of the hot water pipe and (b) converting the three-way valve to a heating mode and performing an extinguishing operation of the boiler via the controller's control, if temperature of the heating water reaches a preset constant temperature, and circulating the heating water to the heating pipe by driving the circulation pump. (a) converting a three-way valve into a hot water mode and carrying out a combustion operation of the boiler via a controller's control, if temperature of heating water falls below a preset freeze protection temperature, and circulating the heating water through a closed loop including a circulation pump, a heating heat exchanger, the three-way valve and a hot water supply heat exchanger by driving the circulation pump; hereby transferring heat exchanger heat in the hot water supply from the heating water to the hot water pipe thereby preventing freezing of the hot water pipe and (b) converting the three-way valve to a heating mode and performing an extinguishing operation of the boiler via the controller's control, if temperature of the heating water reaches a preset constant temperature, and circulating the heating water to the heating pipe by driving the circulation pump.
An arc welding device for carrying out welding while repeatedly generating a cycle constituted by a short circuit state and an arc state between a consumable electrode and a welding member, the arc welding device comprising: a detection unit configured to detect a length of a present-cycle short circuit generation period; and characterized by: an adjustment unit configured to: increase an increase rate of a short circuit current in a next-cycle short circuit generation period as the length of the present-cycle short circuit generation period detected by the detection unit becomes larger; and reduce the increase rate of a short circuit current in the next-cycle short circuit generation period as the length of the present-cycle short circuit generation period detected by the detection unit becomes smaller. a detection unit configured to detect a length of a present-cycle short circuit generation period; and characterized by: an adjustment unit configured to: increase an increase rate of a short circuit current in a next-cycle short circuit generation period as the length of the present-cycle short circuit generation period detected by the detection unit becomes larger; and reduce the increase rate of a short circuit current in the next-cycle short circuit generation period as the length of the present-cycle short circuit generation period detected by the detection unit becomes smaller.
A pharmaceutical composition for use in the treatment of glioblastoma multiforme by inhibiting growth of cancer stem cells, containing gossypol and phenformin.
A high-frequency heating device comprising: a heating chamber which has an opening part and in which an object to be heated is placed; a front plate arranged in a peripheral edge of the opening part of the heating chamber; a cover which covers an upper surface and right and left side surfaces of the heating chamber; an upper flange formed by bending an upper part of an outer peripheral edge of the front plate; side flanges formed by bending right and left side parts of the outer peripheral edge of the front plate; and pawls formed in right and left side parts of a front surface of the cover; wherein the pawls sandwich and engage the side flanges, the high-frequency heating device being characterized in that: engaging bodies are formed in the side flanges, the pawls are cut out so as to meet shapes of the engaging bodies, and the engaging bodies are arranged on an upper side of the pawls to suppress a vertical movement of the cover. a heating chamber which has an opening part and in which an object to be heated is placed; a front plate arranged in a peripheral edge of the opening part of the heating chamber; a cover which covers an upper surface and right and left side surfaces of the heating chamber; an upper flange formed by bending an upper part of an outer peripheral edge of the front plate; side flanges formed by bending right and left side parts of the outer peripheral edge of the front plate; and pawls formed in right and left side parts of a front surface of the cover; wherein the pawls sandwich and engage the side flanges, the high-frequency heating device being characterized in that: engaging bodies are formed in the side flanges, the pawls are cut out so as to meet shapes of the engaging bodies, and the engaging bodies are arranged on an upper side of the pawls to suppress a vertical movement of the cover. engaging bodies are formed in the side flanges, the pawls are cut out so as to meet shapes of the engaging bodies, and the engaging bodies are arranged on an upper side of the pawls to suppress a vertical movement of the cover.
An optical measurement system, comprising: an optical sensor assembly including an objective lens with an optical axis and a lens housing; a stage for placement of an object to be measured located beneath the optical sensor assembly, the stage and the optical sensor assembly being movable with respect to one another along each of the x, y and z axes; and a deployment mechanism pivotally connected relative to the optical sensor assembly and configured to pivotally move a secondary measurement aid (14, 35, 41) relative to the optical sensor assembly along an arcuate path between a deployed position and a pivotally retracted position, a pivot axis of the deployment mechanism being generally horizontal and no lower than the objective lens; wherein when in the deployed position, the secondary measurement aid (14, 35, 41) is aligned along the optical axis, when in the retracted position, the secondary measurement aid (14, 35, 41) is no lower than a lowest portion of the lens housing along the z axis; and wherein the stage is moveable along the x and y axes, such that when in the retracted position, the secondary measurement aid (14, 35, 41) does not inhibit relative movement of the optical sensor assembly with respect to the object to be measured along each of the x, y, z axes. an optical sensor assembly including an objective lens with an optical axis and a lens housing; a stage for placement of an object to be measured located beneath the optical sensor assembly, the stage and the optical sensor assembly being movable with respect to one another along each of the x, y and z axes; and a deployment mechanism pivotally connected relative to the optical sensor assembly and configured to pivotally move a secondary measurement aid (14, 35, 41) relative to the optical sensor assembly along an arcuate path between a deployed position and a pivotally retracted position, a pivot axis of the deployment mechanism being generally horizontal and no lower than the objective lens; wherein when in the deployed position, the secondary measurement aid (14, 35, 41) is aligned along the optical axis, when in the retracted position, the secondary measurement aid (14, 35, 41) is no lower than a lowest portion of the lens housing along the z axis; and wherein the stage is moveable along the x and y axes, such that when in the retracted position, the secondary measurement aid (14, 35, 41) does not inhibit relative movement of the optical sensor assembly with respect to the object to be measured along each of the x, y, z axes.
A modular controller located in an environment of an effector launching system that has external components (16, 18, 22, 24, 26, 28) located in the environment externally to the modular controller for executing an effector launching sequence, the modular controller comprising: a core processor module that is configured to execute a plurality of different effector launching sequences using the external components; and a plurality of converting modules (38, 40, 42, 44, 46, 48) that each have an electro-mechanical interface and is connectable between the core processor module and one of the external components; characterized in that each of the plurality of converting modules is configured to send and receive data with the core processor module and individual ones of the plurality of external components; wherein the external components include a plurality of effectors, and may further include any of a sensor, an effector launcher, a mounting platform or a power source. a core processor module that is configured to execute a plurality of different effector launching sequences using the external components; and a plurality of converting modules (38, 40, 42, 44, 46, 48) that each have an electro-mechanical interface and is connectable between the core processor module and one of the external components; characterized in that each of the plurality of converting modules is configured to send and receive data with the core processor module and individual ones of the plurality of external components; wherein the external components include a plurality of effectors, and may further include any of a sensor, an effector launcher, a mounting platform or a power source.
A thermosetting bamboo-sand composite pressure pipe, the pressure pipe comprising an inner liner layer and an outer protection layer arranged from the inside out in a radial direction, characterized in that an inner reinforcement layer formed by winding bamboo strips with amino resin, a sand-adhesive thickening layer formed by an evenly blended mixture of ore sand and adhesive resin, and an outer reinforcement layer formed by winding bamboo strips with amino resin are respectively disposed between the inner liner layer and the outer protection layer from the inside out, wherein in the inner reinforcement layer, the bamboo strips are first radially wound to form a first radial layer to adhere to the outer surface of the inner liner layer; and then the bamboo strips are axially wound to form a first axial layer to adhere to an outer surface of the first radial layer, and in the outer reinforcement layer, the bamboo strips are first axially wound to form a second axial layer to adhere to the outer surface of the sand-adhesive thickening layer; and then the bamboo strips are radially wound to form a second radial layer to adhere to an outer surface of the second axial layer, the inner liner layer, the inner reinforcement layer, the sand-adhesive thickening layer, and the outer reinforcement layer are adhered and cured in an integrated manner by heating.
A hardenable two part acrylic composition comprising an acrylic polymer composition first part and an acrylic monomer composition second part, the acrylic polymer composition comprising acrylic polymer particles, wherein at least a first type of acrylic polymer particle is microporous, and wherein the first type of acrylic polymer has an average pore size of between 0.1 and 2000nm.
- A dishwasher comprising a tub; a sump wherein the washing water is collected; a circulation pump that provides the delivery of the washing water onto the items to be washed; a heat pump system at the lower part of the tub that provides the heating of the washing water; a compressor, a condenser receptacle, a condenser, an evaporator and at least one evaporator fan that constitute the heat pump system; a hot air duct that enables the hot and humid air in the washing environment in the tub to be directed onto the evaporator so as to increase the amount of condensation on the evaporator surface; and a condensation receptacle that is disposed under the evaporator and wherein the water condensing on the evaporator is collected; characterized in that the evaporator fan is arranged to blow ambient air onto the evaporator so as to further increase the amount of condensation on the evaporator surface, and the dishwasher further comprises a water supply line and a water supply pump that delivers the water in the condensation receptacle to be used in the washing process.
A thermoplastic resin composition, comprising: 55 to 70 % by weight of a non-grafted copolymer containing 65 to 83 % by weight of a (meth)acrylic acid alkyl ester compound, 2 to 12 % by weight of an N-substituted maleimide compound, 1 to 6 % by weight of a vinyl cyanide compound, and 7 to 17 % by weight of an aromatic vinyl compound; 20 to 42 % by weight of an acrylate-based rubber-aromatic vinyl compound-vinyl cyanide compound graft copolymer containing acrylate-based rubber having an average particle diameter of 50 to 200 nm; and 1 to 15 % by weight of an acrylate-based rubber-aromatic vinyl compound-vinyl cyanide compound graft copolymer containing acrylate-based rubber having an average particle diameter of 300 to 600 nm, wherein the average particle diameter is measured using a Gaussian intensity distribution (Nicomp 380) through dynamic laser light scattering. 55 to 70 % by weight of a non-grafted copolymer containing 65 to 83 % by weight of a (meth)acrylic acid alkyl ester compound, 2 to 12 % by weight of an N-substituted maleimide compound, 1 to 6 % by weight of a vinyl cyanide compound, and 7 to 17 % by weight of an aromatic vinyl compound; 20 to 42 % by weight of an acrylate-based rubber-aromatic vinyl compound-vinyl cyanide compound graft copolymer containing acrylate-based rubber having an average particle diameter of 50 to 200 nm; and 1 to 15 % by weight of an acrylate-based rubber-aromatic vinyl compound-vinyl cyanide compound graft copolymer containing acrylate-based rubber having an average particle diameter of 300 to 600 nm, wherein the average particle diameter is measured using a Gaussian intensity distribution (Nicomp 380) through dynamic laser light scattering.
Load train modular unit for the setup of a load train composed of a plurality of such modular units releasably coupled in succession, comprising - a chassis unit having a front carriage chassis part including at least one front carriage rear wheel (7a, 7b), a rear carriage chassis part including at least one rear carriage front wheel (8a, 8b), wherein the rear carriage chassis part is coupled to the front carriage chassis part to be pivotable about a vertical axis, and a steering mechanism (11 to 15), configured for steering the at least one front carriage rear wheel (7a, 7b) as a function of the pivoted position of the rear carriage chassis part relative to the front carriage chassis part in relation to the vertical axis, - a rearward front carriage load-bearing frame part supporting on the front carriage chassis part, - a frontward rear carriage load-bearing frame part supporting on the rear carriage chassis part, and - frame coupling means (31, 32) for releasable coupling of the rearward front carriage load-bearing frame part to the frontward rear carriage load-bearing frame part of a modular unit to be coupled to the load train before it, in order to form a front carriage load-bearing frame, and for releasable coupling of the frontward rear carriage load-bearing frame part to the rearward front carriage load-bearing frame part of a modular unit to be coupled to the load train behind it, in order to form a rear carriage load-bearing frame. - a chassis unit having a front carriage chassis part including at least one front carriage rear wheel (7a, 7b), a rear carriage chassis part including at least one rear carriage front wheel (8a, 8b), wherein the rear carriage chassis part is coupled to the front carriage chassis part to be pivotable about a vertical axis, and a steering mechanism (11 to 15), configured for steering the at least one front carriage rear wheel (7a, 7b) as a function of the pivoted position of the rear carriage chassis part relative to the front carriage chassis part in relation to the vertical axis, - a rearward front carriage load-bearing frame part supporting on the front carriage chassis part, - a frontward rear carriage load-bearing frame part supporting on the rear carriage chassis part, and - frame coupling means (31, 32) for releasable coupling of the rearward front carriage load-bearing frame part to the frontward rear carriage load-bearing frame part of a modular unit to be coupled to the load train before it, in order to form a front carriage load-bearing frame, and for releasable coupling of the frontward rear carriage load-bearing frame part to the rearward front carriage load-bearing frame part of a modular unit to be coupled to the load train behind it, in order to form a rear carriage load-bearing frame.