mhurhangee/ep-ind-claims huggingface dataset:
An elongated pre-insulated pipe assembly for fluid transfer, the pipe assembly having a longitudinal center axis (x) and comprising: - a center insulator profile made of thermally insulating foamed plastics, the center insulator profile having a circular cross-section and being concentric in relation to the center axis (x), the center insulator profile comprising at least two longitudinally extending channels (2, 3, 4, 5, 6) formed inside an periphery of the center insulator profile and each channel being adapted to receive one flow pipe, - at least two flow pipes (7, 8, 9, 10, 11) made of plastics, each one of the flow pipes being inserted inside the channel (2, 3, 4, 5, 6) of the center insulator profile, wherein at least one channel (2, 6) of the center insulator profile and the flow pipe (7, 11) inserted in said channel are disposed inside the center insulator profile at a distance from the outer periphery of the center insulator profile and closer to the center axis (x) than other channels (3, 4, 5) and the flow pipe(s) (8, 9, 10) arranged in said other channels (3, 4, 5), wherein - at least one insulation layer (12, 13, 14) made of thermally insulating foamed plastics is arranged to enclose the center insulator profile, and - an outer jacket made of plastics is arranged to enclose the at least one insulation layer (12, 13, 14), and that - the flow pipes (7, 8, 9, 10, 11) are loosely in relation to the center insulator profile, the center insulator profile is loosely in relation to the at least one insulation layer (12, 13, 14) to enable mutual sliding of the flow pipes, the center insulator profile and the at least one insulation layer and thereby to render the pre-insulated pipe assembly to be bendable and windable on a reel. - a center insulator profile made of thermally insulating foamed plastics, the center insulator profile having a circular cross-section and being concentric in relation to the center axis (x), the center insulator profile comprising at least two longitudinally extending channels (2, 3, 4, 5, 6) formed inside an periphery of the center insulator profile and each channel being adapted to receive one flow pipe, - at least two flow pipes (7, 8, 9, 10, 11) made of plastics, each one of the flow pipes being inserted inside the channel (2, 3, 4, 5, 6) of the center insulator profile, - at least one insulation layer (12, 13, 14) made of thermally insulating foamed plastics is arranged to enclose the center insulator profile, and - an outer jacket made of plastics is arranged to enclose the at least one insulation layer (12, 13, 14), and that - the flow pipes (7, 8, 9, 10, 11) are loosely in relation to the center insulator profile, the center insulator profile is loosely in relation to the at least one insulation layer (12, 13, 14) to enable mutual sliding of the flow pipes, the center insulator profile and the at least one insulation layer and thereby to render the pre-insulated pipe assembly to be bendable and windable on a reel.
A mounting device for a splice sleeve, for mounting a cable led through a passage of said splice sleeve, said mounting device comprising: a first tensionable deformation member and a second tensionable deformation member adapted for being compressed in a cable direction for contacting said cable sealingly in directions perpendicularly thereto, wherein said first deformation member is provided for a placement at said cable proximal to said splice sleeve and said second deformation member is provided for a placement at the same cable, assigned to the same passage, following on said first deformation member in said cable direction, and wherein said mounting device is provided such that the two deformation members (6, 7) have, when being in a tensioned state, a defined relative position to each other at said cable, namely also independently of their respective sealing contact to said cable, wherein said first deformation member provided for the placement proximal to said splice sleeve is adapted for being compressed in said cable direction, for contacting said cable sealingly in directions perpendicularily thereto, characterized in that said first and said second deformation member are provided and placed such that, in said relative position at said cable, an air gap is present between said first deformation member and said second deformation member, namely an own tensioning plate (11b, 16a) is provided for each of said deformation members (6, 7) and the tensioning plates (11b, 16 a) are spaced from each other in said cable direction. a first tensionable deformation member and a second tensionable deformation member adapted for being compressed in a cable direction for contacting said cable sealingly in directions perpendicularly thereto, wherein said first deformation member is provided for a placement at said cable proximal to said splice sleeve and said second deformation member is provided for a placement at the same cable, assigned to the same passage, following on said first deformation member in said cable direction, and wherein said mounting device is provided such that the two deformation members (6, 7) have, when being in a tensioned state, a defined relative position to each other at said cable, namely also independently of their respective sealing contact to said cable, wherein said first deformation member provided for the placement proximal to said splice sleeve is adapted for being compressed in said cable direction, for contacting said cable sealingly in directions perpendicularily thereto, characterized in that said first and said second deformation member are provided and placed such that, in said relative position at said cable, an air gap is present between said first deformation member and said second deformation member, namely an own tensioning plate (11b, 16a) is provided for each of said deformation members (6, 7) and the tensioning plates (11b, 16 a) are spaced from each other in said cable direction.
A multilayer 5 layer film consisting of I. a first layer consisting of linear low density polyethylene II. and IV. a second layer and a fourth layer both consisting of high density polyethylene III. a third layer consisting of low density polyethylene V. a fifth layer consisting of linear low density polyethylene; wherein layers I and V are the outer layers, layers II and IV are intermediate layers, and layer III is the core layer, and wherein both outer layers comprise linear low density polyethylene substantially free of long chain branching and having a density above 915 kg/m 3. I. a first layer consisting of linear low density polyethylene II. and IV. a second layer and a fourth layer both consisting of high density polyethylene III. a third layer consisting of low density polyethylene V. a fifth layer consisting of linear low density polyethylene;
An oxo-nitrogenated iron complex having general formula or: wherein: - R 1 and R 2, identical or different, represent a hydrogen atom; or are selected from linear or branched, optionally halogenated C 1 -C 20, preferably C 1 -C 15, alkyl groups, optionally substituted cycloalkyl groups, optionally substituted aryl groups; - R 3, identical or different, represent a hydrogen atom, or are selected from linear or branched, optionally halogenated C 1 -C 20, preferably C 1 -C 15, alkyl groups, optionally substituted cycloalkyl groups, optionally substituted aryl groups; - X 1 and X 2, identical or different, represent a halogen atom such as chlorine, bromine, iodine; or are selected from linear or branched C 1 -C 20, preferably C 1 -C 15, alkyl groups, -OCOR 4 groups or -OR 4 groups wherein R 4 is selected from linear or branched C 1 -C 20, preferably C 1 -C 15, alkyl groups. - R 1 and R 2, identical or different, represent a hydrogen atom; or are selected from linear or branched, optionally halogenated C 1 -C 20, preferably C 1 -C 15, alkyl groups, optionally substituted cycloalkyl groups, optionally substituted aryl groups; - R 3, identical or different, represent a hydrogen atom, or are selected from linear or branched, optionally halogenated C 1 -C 20, preferably C 1 -C 15, alkyl groups, optionally substituted cycloalkyl groups, optionally substituted aryl groups; - X 1 and X 2, identical or different, represent a halogen atom such as chlorine, bromine, iodine; or are selected from linear or branched C 1 -C 20, preferably C 1 -C 15, alkyl groups, -OCOR 4 groups or -OR 4 groups wherein R 4 is selected from linear or branched C 1 -C 20, preferably C 1 -C 15, alkyl groups.
Method for making a hole into a layer, comprising - providing first and second adhesion areas (1a, 1b) on a surface of a support, the first area having dimensions corresponding to the dimensions of the hole, - depositing the layer on the first and second areas, the material of the layer having an adhesion coefficient to the first area lower than the adhesion coefficient to the second area (1 b), characterized in that it comprises the following step: - eliminating the part of the layer on the first area by scanning the surface of the layer with a jet fluid. - providing first and second adhesion areas (1a, 1b) on a surface of a support, the first area having dimensions corresponding to the dimensions of the hole, - depositing the layer on the first and second areas, the material of the layer having an adhesion coefficient to the first area lower than the adhesion coefficient to the second area (1 b), - eliminating the part of the layer on the first area by scanning the surface of the layer with a jet fluid.
Method for inserting a connecting element into a sandwich structure which has two outer layers (2, 3) and a core in between, wherein the connecting element comprises an insert, having the following steps: a) producing a blind hole starting from an outer layer of the sandwich structure; b) introducing the connecting element into the blind hole and fastening the connecting element therein, so that it protrudes from the outer layer; and c) reworking the connecting element by sanding, so that it is flush with the outer layer or protrudes from the outer layer by a predefined height. a) producing a blind hole starting from an outer layer of the sandwich structure; b) introducing the connecting element into the blind hole and fastening the connecting element therein, so that it protrudes from the outer layer; and c) reworking the connecting element by sanding, so that it is flush with the outer layer or protrudes from the outer layer by a predefined height.
An implantable drug-delivery device, comprising: a drug reservoir; a needle entry port comprising a surface and a throat for receiving a refill needle therethrough, the throat opening into a vestibule that is in fluid communication with the drug reservoir; and characterised by a visualization ring surrounding the needle entry port, the visualization ring being visible through ocular tissue so as to visually indicate a position of the needle entry port, the visualization ring comprising a material that enhances surface echogenicity and acoustic shadowing and is different from that of the surface and throat. a drug reservoir; a needle entry port comprising a surface and a throat for receiving a refill needle therethrough, the throat opening into a vestibule that is in fluid communication with the drug reservoir; and characterised by a visualization ring surrounding the needle entry port, the visualization ring being visible through ocular tissue so as to visually indicate a position of the needle entry port, the visualization ring comprising a material that enhances surface echogenicity and acoustic shadowing and is different from that of the surface and throat.
A heat exchanger with a heat-exchanger sealing structure for sealing an end portion of the heat exchanger (H, H2), the heat exchanger (H, H2) having a tubular flow channel member with a cap (2, 2b) attached to an opening portion at either end of the flow channel member, wherein each cap (2, 2b) comprises a fit-in portion (23, 23b) for being fitted into the respective opening portion of the heat exchanger (H, H2), and a flow passage route (222, 271-278, 271b-278b) formed to guide a heat medium from outside the flow channel member to inside the flow channel member or to emit the heat medium from inside the flow channel member to outside the flow channel member, characterized in that each cap (2, 2b) is attached by press-fitting to the respective opening portion, wherein the fit-in portion (23, 23b) of the cap is larger in diameter than an inner diameter of the flow channel member, and at least one recessed groove (251, 252) in a longitudinal direction of an outer peripheral surface of the fit-in portion (23, 23b) is formed around an entire circumference of the fit-in portion (23, 23b), and wherein the outer peripheral surface of the fit-in portion (23, 23b) closely contacts an inner wall of the flow channel member, an open space portion being formed between the recessed groove (251, 252) and the inner wall of the flow channel member.
A system for acquiring at least one sample from a fluid, the system comprising: one or more devices; each device including a sampling mechanism having: an isolated cavity that is initially inaccessible to the external fluid; an electrically passive timing mechanism including a piercing structure, a timing cavity and a conduit in fluidic communication with the timing cavity; and a mechanical structure separating the isolated cavity from the exterior environment, the system being characterized in that the electrically passive timing mechanism includes a piston, the piston configured to move within the isolated cavity, the timing mechanism configured so that upon applying pressure to a timing fluid within the conduit, said timing fluid advances within the conduit and upon reaching the timing cavity and filling it after a timing interval, the timing fluid applies pressure to a side of the piston, causing the piston to advance; and in that the timing mechanism being configured so that at the end of the timing interval the advancement of the piston causes the piercing structure to pierce the mechanical structure, bringing the isolated cavity in contact with the external fluid. one or more devices; each device including a sampling mechanism having: an isolated cavity that is initially inaccessible to the external fluid; an electrically passive timing mechanism including a piercing structure, a timing cavity and a conduit in fluidic communication with the timing cavity; and a mechanical structure separating the isolated cavity from the exterior environment, an isolated cavity that is initially inaccessible to the external fluid; an electrically passive timing mechanism including a piercing structure, a timing cavity and a conduit in fluidic communication with the timing cavity; and a mechanical structure separating the isolated cavity from the exterior environment, the system being characterized in that the electrically passive timing mechanism includes a piston, the piston configured to move within the isolated cavity, the timing mechanism configured so that upon applying pressure to a timing fluid within the conduit, said timing fluid advances within the conduit and upon reaching the timing cavity and filling it after a timing interval, the timing fluid applies pressure to a side of the piston, causing the piston to advance; and in that the timing mechanism being configured so that at the end of the timing interval the advancement of the piston causes the piercing structure to pierce the mechanical structure, bringing the isolated cavity in contact with the external fluid.
An airbag, wherein the airbag is configured to be inflated and deployed from a seat back, a head rest, or an interior member behind the seat back of an automobile seat, and to restrain an occupant of the seat, wherein the airbag comprises first and second inflatable sections (10, 20) that are configured to be inflated and deployed on both sides of the head of the occupant, and a third inflatable section that is configured to be inflated and deployed in front of the chest of the occupant, an upper portion of the third inflatable section being continuous with front portions (10f, 20f) of the first and second inflatable sections (10, 20), characterized in that occupant-facing surfaces (11, 21) of the front portions (10f, 20f) of the first inflatable section and the second inflatable section and a virtual line, which connects intermediate portions (10m, 20m) of the occupant-facing surfaces (11, 21) of the front portions (10f, 20f) and is parallel to a width direction of the airbag, form a triangular shape in plan view, and a main portion of a rear surface of the third inflatable section is flat. wherein the airbag is configured to be inflated and deployed from a seat back, a head rest, or an interior member behind the seat back of an automobile seat, and to restrain an occupant of the seat, wherein the airbag comprises first and second inflatable sections (10, 20) that are configured to be inflated and deployed on both sides of the head of the occupant, and a third inflatable section that is configured to be inflated and deployed in front of the chest of the occupant, an upper portion of the third inflatable section being continuous with front portions (10f, 20f) of the first and second inflatable sections (10, 20), first and second inflatable sections (10, 20) that are configured to be inflated and deployed on both sides of the head of the occupant, and a third inflatable section that is configured to be inflated and deployed in front of the chest of the occupant, an upper portion of the third inflatable section being continuous with front portions (10f, 20f) of the first and second inflatable sections (10, 20), characterized in that occupant-facing surfaces (11, 21) of the front portions (10f, 20f) of the first inflatable section and the second inflatable section and a virtual line, which connects intermediate portions (10m, 20m) of the occupant-facing surfaces (11, 21) of the front portions (10f, 20f) and is parallel to a width direction of the airbag, form a triangular shape in plan view, and a main portion of a rear surface of the third inflatable section is flat.
A composition comprising linked segments of: (a) a polyhydroxy segment derived from a compound independently selected from the group consisting of an acyclic polyhydric alcohol having 4 to 6 carbon atoms and 4 to 6 reactive hydroxyl groups; a cyclic polyhydric alcohol having 4 to 6 carbon atoms and 4 to 6 reactive hydroxyl groups, a poly(hydroxyethyl) polyethyleneamine having 4 to 6 reactive hydroxyl groups and combinations thereof; (b) polyoxyalkylene segments wherein each hydroxyl group of the polyhydroxyl segment is linked to a polyoxyalkylene segment; (c) and aliphatic end segments or aromatic end segments, each end segment having 6 to 32 carbon atoms and an epoxide group, wherein the mole ratio of the polyoxyalkylene segment to the polyhydroxy segment is at least 4:1 and the mole ratio of the aliphatic or aromatic end segment to the polyhydroxy segment is at least 0.25: 1. (a) a polyhydroxy segment derived from a compound independently selected from the group consisting of an acyclic polyhydric alcohol having 4 to 6 carbon atoms and 4 to 6 reactive hydroxyl groups; a cyclic polyhydric alcohol having 4 to 6 carbon atoms and 4 to 6 reactive hydroxyl groups, a poly(hydroxyethyl) polyethyleneamine having 4 to 6 reactive hydroxyl groups and combinations thereof; (b) polyoxyalkylene segments wherein each hydroxyl group of the polyhydroxyl segment is linked to a polyoxyalkylene segment; (c) and aliphatic end segments or aromatic end segments, each end segment having 6 to 32 carbon atoms and an epoxide group, wherein the mole ratio of the polyoxyalkylene segment to the polyhydroxy segment is at least 4:1 and the mole ratio of the aliphatic or aromatic end segment to the polyhydroxy segment is at least 0.25: 1.
Liquid dispensing system comprising a liquid dispensing device and at least one container for storing the liquid to be dispensed, wherein: the liquid dispensing device includes first connecting means and the at least one container contains second connecting means, said first and second connecting means being arranged to cooperate to releasably connect the liquid dispensing device to the at least one container; the liquid dispensing system further comprises means for preventing refilling of the at least one container; the at least one container has a neck defining a fill opening for the liquid and the refill prevention means includes a restriction element (7; 107) which almost completely closes off the fill opening; the restriction element (7; 107) includes an opening (12; 112) having a cross sectional area that is substantially smaller than that of the fill opening; and the liquid dispensing system further comprises a valve (14; 114), characterized in that the valve (14; 114) closes off the opening (12; 112) in the restriction element (7; 107) and remains closed as long as no suction is applied due to actuation of the dispensing device. the liquid dispensing device includes first connecting means and the at least one container contains second connecting means, said first and second connecting means being arranged to cooperate to releasably connect the liquid dispensing device to the at least one container; the liquid dispensing system further comprises means for preventing refilling of the at least one container; the at least one container has a neck defining a fill opening for the liquid and the refill prevention means includes a restriction element (7; 107) which almost completely closes off the fill opening; the restriction element (7; 107) includes an opening (12; 112) having a cross sectional area that is substantially smaller than that of the fill opening; and the liquid dispensing system further comprises a valve (14; 114), characterized in that the valve (14; 114) closes off the opening (12; 112) in the restriction element (7; 107) and remains closed as long as no suction is applied due to actuation of the dispensing device.
A startup method for a multi-axis simulation system including a test fixture having a MIMO linkage, the MIMO linkage driven by a first actuator and a second actuator, the MIMO linkage acting on a sample holder along a first simulation axis and a second simulation axis, the method comprising: receiving a first user-defined profile and a second user-defined profile for sample axial strain and sample bend angle; calculating an initial position of a fatigue test for the first actuator based on the first and second user-defined profiles; moving the first actuator to the initial position; operating the first actuator according to a waveform with an amplitude set initially to zero, the amplitude being increased at a rate to a desired value. receiving a first user-defined profile and a second user-defined profile for sample axial strain and sample bend angle; calculating an initial position of a fatigue test for the first actuator based on the first and second user-defined profiles; moving the first actuator to the initial position; operating the first actuator according to a waveform with an amplitude set initially to zero, the amplitude being increased at a rate to a desired value.