mhurhangee/ep-ind-claims huggingface dataset:
A shock absorber comprising: a shock absorber body composed of an outer tube and an inner tube going into and out of the outer tube and interposed between a vehicle body and a wheel; a cylinder connected to a side of the wheel and standing in a shaft center portion of the shock absorber body; a liquid chamber formed in the cylinder and filled with an operating liquid; an annular rod guide fixed to the cylinder and closing a vehicle body side of the liquid chamber; a piston rod connected to a vehicle body side, penetrating a shaft center portion of the rod guide, and going into and out of the cylinder; an annular seal member held on an inner periphery of the rod guide and in sliding contact with an outer peripheral surface of the piston rod; an upper-side relief portion formed on an outer periphery of the piston rod and forming a gap between the piston rod and the seal member when the piston rod retreats from the cylinder by a predetermined amount, characterized in that, a free piston in sliding contact with a portion on a side opposite to a piston rod side in an inner peripheral surface of the cylinder and closing a wheel side of the liquid chamber; urging means adapted to urge the free piston to a side of the liquid chamber, and a lower-side relief portion formed on an inner periphery of the cylinder and forming a gap between the free piston and the cylinder when the free piston moves to the wheel side by a predetermined amount. a shock absorber body composed of an outer tube and an inner tube going into and out of the outer tube and interposed between a vehicle body and a wheel; a cylinder connected to a side of the wheel and standing in a shaft center portion of the shock absorber body; a liquid chamber formed in the cylinder and filled with an operating liquid; an annular rod guide fixed to the cylinder and closing a vehicle body side of the liquid chamber; a piston rod connected to a vehicle body side, penetrating a shaft center portion of the rod guide, and going into and out of the cylinder; an annular seal member held on an inner periphery of the rod guide and in sliding contact with an outer peripheral surface of the piston rod; an upper-side relief portion formed on an outer periphery of the piston rod and forming a gap between the piston rod and the seal member when the piston rod retreats from the cylinder by a predetermined amount, characterized in that, a free piston in sliding contact with a portion on a side opposite to a piston rod side in an inner peripheral surface of the cylinder and closing a wheel side of the liquid chamber; urging means adapted to urge the free piston to a side of the liquid chamber, and a lower-side relief portion formed on an inner periphery of the cylinder and forming a gap between the free piston and the cylinder when the free piston moves to the wheel side by a predetermined amount.
A coated base fabric for airbag in which a fabric composed of polyamide fibers is provided with a resin coating, wherein the fabric is obtained by weaving polyamide fibers having a total fineness of not less than 100 dtex and not more than 250 dtex, a single fiber fineness of 1 to 4 dtex, and a tenacity of not less than 9.0 cN/dtex; wherein weaving is performed by adjusting a warp tension to 30 to 70 cN/end and a shedding timing in weaving is adjusted to 330 to 340 degrees; wherein after weaving the polyamide fibers which compose the base fabric have a total fineness of not less than 100 dtex and not more than 250 dtex and a tenacity of not less than 8.1 cN/dtex, and the coated base fabric for airbag has a basis weight of not more than 170 g/m 2, packability of the base fabric in accordance with ASTM D6478-02 of not more than 1,400 cm 3, a tear strength in accordance with JIS K 6404-4 6. Test Method B in a warp direction and a weft direction of not less than 200 N and an edgecomb resistance in accordance with ASTM D6479-02 in the warp direction and the weft direction of not less than 200 N.
A side-fire laser fiber comprising: an optical fiber having a distal end; and a fiber cap coupled to the distal end of the optical fiber and comprising a molded reflective surface and a sealed cavity; wherein: the molded reflective surface defines a wall of the cavity; laser energy discharged from the distal end of the optical fiber and along a central axis of the optical fiber is reflected off the molded reflective surface in a direction that is transverse to the central axis; a portion of the cavity extends between the distal end of the optical fiber and the molded reflective surface; the fiber cap includes a main body having a proximal end attached to the optical fiber and a distal end having an opening to the cavity, and a cover member attached to the main body that seals the cavity and supports the molded reflective surface; and characterized in that the main body includes a distal surface that is oriented at an oblique angle to the central axis, and the cover member is attached to the distal surface. an optical fiber having a distal end; and a fiber cap coupled to the distal end of the optical fiber and comprising a molded reflective surface and a sealed cavity; wherein: the molded reflective surface defines a wall of the cavity; laser energy discharged from the distal end of the optical fiber and along a central axis of the optical fiber is reflected off the molded reflective surface in a direction that is transverse to the central axis; a portion of the cavity extends between the distal end of the optical fiber and the molded reflective surface; the fiber cap includes a main body having a proximal end attached to the optical fiber and a distal end having an opening to the cavity, and a cover member attached to the main body that seals the cavity and supports the molded reflective surface; and characterized in that the main body includes a distal surface that is oriented at an oblique angle to the central axis, and the cover member is attached to the distal surface. the molded reflective surface defines a wall of the cavity; laser energy discharged from the distal end of the optical fiber and along a central axis of the optical fiber is reflected off the molded reflective surface in a direction that is transverse to the central axis; a portion of the cavity extends between the distal end of the optical fiber and the molded reflective surface; the fiber cap includes a main body having a proximal end attached to the optical fiber and a distal end having an opening to the cavity, and a cover member attached to the main body that seals the cavity and supports the molded reflective surface; and characterized in that the main body includes a distal surface that is oriented at an oblique angle to the central axis, and the cover member is attached to the distal surface.
A handle for a window, for a door or the like, said handle comprising an associated insert; a base part configured for fastening to the window, to the door or the like; and a grip which is rotatable about an axis of rotation with respect to the base part to actuate the handle, wherein a blocking mechanism is provided by means of which the grip can be blocked in at least one rotational position with respect to a rotational movement in at least one direction of rotation; and wherein the blocking mechanism can be unblocked by a displacement movement of the grip directed toward the base part or directed away from the base part, wherein the displacement movement of the grip unblocking the blocking mechanism can be selectively blocked by means of the insert which can be pushed in between the handle and a leaf of the window, of the door or the like.
A connector (5, 36) provided to a connection between a vibrating body (1; 3) that is a vibration source and a plate-like shielding body that is attached to the vibrating body (1; 3), the connector (5, 36) comprising: a first buffer member that includes a spiral-shaped wire in a plan view; a second buffer member that has a substantially annular and flat plate-like shape, and that is capable of warping in a thickness direction, and that is stacked with the first buffer member; a collar member that includes a cylindrical portion having an insertion hole for a fixing member for attaching the connector (5, 36) to the vibrating body (1; 3), the cylindrical portion surrounded by the first buffer member and the second buffer member, a first flange facing a radially inner side of the first buffer member, and a second flange facing a radially inner side of the second buffer member, the first and the second flanges (21, 22) both protruding from the cylindrical portion in a radial direction; and a coupling member that includes a first holder section holding radially outer sides of the first buffer member and the second buffer member, a second holder section holding the shielding body, and a coupling member base portion (123, 123d) connecting the first holder section and the second holder section. a first buffer member that includes a spiral-shaped wire in a plan view; a second buffer member that has a substantially annular and flat plate-like shape, and that is capable of warping in a thickness direction, and that is stacked with the first buffer member; a collar member that includes a cylindrical portion having an insertion hole for a fixing member for attaching the connector (5, 36) to the vibrating body (1; 3), the cylindrical portion surrounded by the first buffer member and the second buffer member, a first flange facing a radially inner side of the first buffer member, and a second flange facing a radially inner side of the second buffer member, the first and the second flanges (21, 22) both protruding from the cylindrical portion in a radial direction; and a coupling member that includes a first holder section holding radially outer sides of the first buffer member and the second buffer member, a second holder section holding the shielding body, and a coupling member base portion (123, 123d) connecting the first holder section and the second holder section.
A combination of vectors comprising: a) a first viral vector encoding one or more angiogenic proteins which induce vascularization in the heart of the mammal, and b) a second viral vector encoding one or more cardio-differentiating transcription factors which induce the production of induced cardiomyocytes (iCMs) in the heart of the mammal, for use in a method of treating coronary artery disease in a mammal in combination with an additional pharmacological therapy for treatment of coronary artery disease, wherein the first and second vector are administered to the heart of the mammal. a) a first viral vector encoding one or more angiogenic proteins which induce vascularization in the heart of the mammal, and b) a second viral vector encoding one or more cardio-differentiating transcription factors which induce the production of induced cardiomyocytes (iCMs) in the heart of the mammal,
Method for making an electrical connection between an electronic chip and a carrier plate on which this chip is mounted, comprising the following steps of: installing at least one electrical connection wire between an exposed electrical connection pad of the chip and an exposed electrical connection pad of the support plate and making electrical junctions between the ends of the wire and the pads, producing a dielectric layer made of a dielectric material over an area of the electronic chip and of the carrier plate, including the electrical connection wire, the junctions and the pads, by dispensing a determined amount of the dielectric material in the liquid state and hardening this dielectric material, such that this dielectric layer produces a local dielectric coating which surrounds the electrical connection wire and covers the junctions and the pads, and producing a local conductive shield made of an electrically conductive material, which at least partially covers the local dielectric coating, by locally dispensing a determined amount of an electrically conductive material in the liquid state, in the form of a calibrated drop which flows by capillary or wetting effect, by means of a controlled tool comprising a controlled dispensing syringe, and hardening this conductive material, so as to produce a shield around the electrical connection wire and the junctions. installing at least one electrical connection wire between an exposed electrical connection pad of the chip and an exposed electrical connection pad of the support plate and making electrical junctions between the ends of the wire and the pads, producing a dielectric layer made of a dielectric material over an area of the electronic chip and of the carrier plate, including the electrical connection wire, the junctions and the pads, by dispensing a determined amount of the dielectric material in the liquid state and hardening this dielectric material, such that this dielectric layer produces a local dielectric coating which surrounds the electrical connection wire and covers the junctions and the pads, and producing a local conductive shield made of an electrically conductive material, which at least partially covers the local dielectric coating, by locally dispensing a determined amount of an electrically conductive material in the liquid state, in the form of a calibrated drop which flows by capillary or wetting effect, by means of a controlled tool comprising a controlled dispensing syringe, and hardening this conductive material, so as to produce a shield around the electrical connection wire and the junctions.
Seating furniture chassis, comprising a base body, fastening means and a back part, wherein the fastening means are arranged on the base body, wherein the back part can be fastened releasably to the fastening means, wherein the fastening means comprise a spring element and a fastening element, wherein the spring element exerts a spring force on the fastening element, wherein, when the back part is fastened to the fastening means, the fastening element is moved by the back part counter to the spring force, wherein the fastening means have a latching region, wherein the back part comprises a latching element, wherein the latching element is arranged in the latching region when the back part is fastened to the fastening means, wherein the fastening element exerts a latching force, which is triggered by the spring force, on the latching element when the latching element is arranged in the latching region, wherein the latching element can be introduced from above into the latching region, characterized in that the back part can be fastened to the fastening means by a second pivoting movement of the back part, wherein, during this second pivoting movement, the movement of the fastening element counter to the spring force is triggered by the latching element.
Method of loading liposomes with a poorly water-soluble substance, said poorly water-soluble substance having an aqueous solubility of less than 1.9 mM at 20 °C and pH = 7, said method comprising: a) providing a mixture containing: i. liposomes encapsulating an internal aqueous medium; ii. said poorly water-soluble substance; iii. an external aqueous medium optionally comprising sucrose; and iv. a solubility enhancing agent present in the external aqueous medium, said solubility enhancing agent being selected from the group consisting of complexing agents chosen from α-, β-, and γ-cyclodextrin and cyclodextrins modified with alkyl-, hydroxyalkyl-, dialkyl, and sulphoalkylether groups, and co-solvents chosen from polyethylene glycols (PEGs); wherein a proton- and/or ion-gradient exists across the liposomal membrane; and b) incubating said mixture for a period of time sufficient to cause at least part of said poorly water-soluble substance to be drawn out of the external aqueous medium and to accumulate in the liposomes under the influence of said proton and/or ion gradient; and c) separating the liposomes from the external aqueous medium comprising the remaining poorly water-soluble substance and the solubility enhancing agent. a) providing a mixture containing: i. liposomes encapsulating an internal aqueous medium; ii. said poorly water-soluble substance; iii. an external aqueous medium optionally comprising sucrose; and iv. a solubility enhancing agent present in the external aqueous medium, said solubility enhancing agent being selected from the group consisting of complexing agents chosen from α-, β-, and γ-cyclodextrin and cyclodextrins modified with alkyl-, hydroxyalkyl-, dialkyl, and sulphoalkylether groups, and co-solvents chosen from polyethylene glycols (PEGs); wherein a proton- and/or ion-gradient exists across the liposomal membrane; and i. liposomes encapsulating an internal aqueous medium; ii. said poorly water-soluble substance; iii. an external aqueous medium optionally comprising sucrose; and iv. a solubility enhancing agent present in the external aqueous medium, said solubility enhancing agent being selected from the group consisting of complexing agents chosen from α-, β-, and γ-cyclodextrin and cyclodextrins modified with alkyl-, hydroxyalkyl-, dialkyl, and sulphoalkylether groups, and co-solvents chosen from polyethylene glycols (PEGs); b) incubating said mixture for a period of time sufficient to cause at least part of said poorly water-soluble substance to be drawn out of the external aqueous medium and to accumulate in the liposomes under the influence of said proton and/or ion gradient; and c) separating the liposomes from the external aqueous medium comprising the remaining poorly water-soluble substance and the solubility enhancing agent.
Composition for use in the treatment of B-cell malignant cancer or T-cell malignant cancer, wherein B-cell malignant cancer is diffuse large B-cell lymphoma or splenic marginal zone lymphoma and wherein T-cell malignant cancer is anaplastic large T-cell lymphoma, comprising a thienotriazolodiazepine compound, said thienotriazolodiazepine compound being represented by the following Formula: wherein R 1 is alkyl having a carbon number of 1-4, R 2 is a hydrogen atom; a halogen atom; or alkyl having a carbon number of 1-4 optionally substituted by a halogen atom or a hydroxyl group, R 3 is a halogen atom; phenyl optionally substituted by a halogen atom, alkyl having a carbon number of 1-4, alkoxy having a carbon number of 1-4 or cyano; --NR 5 --(CH 2) m --R 6 wherein R 5 is a hydrogen atom or alkyl having a carbon number of 1-4, m is an integer of 0-4, and R 6 is phenyl or pyridyl optionally substituted by a halogen atom; or --NR 7 --CO--(CH 2) n --R 8 wherein R 7 is a hydrogen atom or alkyl having a carbon number of 1-4, n is an integer of 0-2, and R 8 is phenyl or pyridyl optionally substituted by a halogen atom, and R 4 is --(CH 2) a --CO--NH--R 9 wherein a is an integer of 1-4, and R 9 is alkyl having a carbon number of 1-4; hydroxyalkyl having a carbon number of 1-4; alkoxy having a carbon number of 1-4; or phenyl or pyridyl optionally substituted by alkyl having a carbon number of 1-4, alkoxy having a carbon number of 1-4, amino or a hydroxyl group or --(CH 2) b -COOR 10 wherein b is an integer of 1-4, and R 10 is alkyl having a carbon number of 1-4, or a pharmaceutically acceptable salt thereof or a hydrate or solvate thereof.
An electrical connection mount (10, 150) extending along an axial direction and comprising an internal movable element (14, 114) that can move along the axial direction between a contact position and an insulated position, wherein the movable element (14, 114) is configured to come into contact with at least one complementary contact (54, 115A) of a complementary electrical connection mount (50, 110) in the contact position while the movable element (14, 114) is configured to be remote from the at least one complementary contact (54, 115A) of the complementary electrical connection mount (50, 110) in the insulated position, the electrical connection mount (10, 150) comprising an internal displacement mechanism (16, 116) configured to move the movable element (14, 114) between the contact position and the insulated position when the electrical connection mount (10, 150) and the complementary electrical connection mount (50, 110) are engaged with each other and rotated relative to each other around the axial direction.
A data processing method of determining a flow based on a positive pressure ventilation therapy machine, the method comprising: acquiring a current operating parameter and a current pressure value of a draught fan in the positive pressure ventilation therapy machine; finding a target relational expression corresponding to the current pressure value in a preset list according to the current pressure value, wherein the preset list comprises a plurality of pressure values and relational expressions corresponding to the plurality of pressure values, and each of the relational expressions corresponding to the plurality of pressure values is a relational expression between operating parameters of the draught fan and a gas flow output by the positive pressure ventilation therapy machine; and determining a current gas flow output by the positive pressure ventilation therapy machine according to the current operating parameter and the target relational expression, wherein the step of determining the current gas flow output by the positive pressure ventilation therapy machine according to the current operating parameter and the target relational expression comprises: performing calculation according to F = 1 B ln P K to obtain the current gas flow output by the positive pressure ventilation therapy machine, wherein F is the gas flow, P is the current operating parameter, B and K are conversion coefficients, and the conversion coefficients are related to the current pressure value. acquiring a current operating parameter and a current pressure value of a draught fan in the positive pressure ventilation therapy machine; finding a target relational expression corresponding to the current pressure value in a preset list according to the current pressure value, wherein the preset list comprises a plurality of pressure values and relational expressions corresponding to the plurality of pressure values, and each of the relational expressions corresponding to the plurality of pressure values is a relational expression between operating parameters of the draught fan and a gas flow output by the positive pressure ventilation therapy machine; and determining a current gas flow output by the positive pressure ventilation therapy machine according to the current operating parameter and the target relational expression, wherein the step of determining the current gas flow output by the positive pressure ventilation therapy machine according to the current operating parameter and the target relational expression comprises: performing calculation according to F = 1 B ln P K to obtain the current gas flow output by the positive pressure ventilation therapy machine, wherein F is the gas flow, P is the current operating parameter, B and K are conversion coefficients, and the conversion coefficients are related to the current pressure value.
A method for determining whether two plastics components to be welded to each other in a joint plane by means of laser transmission welding are welded to each other after a welding process has been carried out, wherein one of the plastics components is transparent to a laser beam, wherein a further plastics component is nontransparent or absorbent to the laser beam, and wherein before the welding process is carried out, the location of a reference plane is ascertained from a reference point, subsequently the welding process is carried out, and during or after the ending of the welding process, the location of the joint plane is ascertained from the reference point by means of a laser beam measurement.