mhurhangee/ep-ind-claims huggingface dataset:
A pool apparatus, comprising: a pool body (11, 21, 151, 161); a water inlet for supplying water into the pool body (11, 21, 151); a water outlet for draining the water outside the pool body (11, 21, 151); and an outlet valve (31, 41, 153, 155, 163) for covering the water outlet, wherein the outlet valve (31, 41, 153, 155, 163) has a draining surface for water flowing out of the pool body (11, 21, 151) in a draining direction, characterised in that: the outlet valve (153, 155) has a protrusion block (43, 51, 511, 531, 541, 551, 561, 571, 581, 591, 5111, 5121) protruding a protruding distance opposite to the draining direction from the draining surface to decrease risk of sucking the user at the water outlet; wherein the outlet valve (31, 41, 153, 155, 163) comprises a main body portion (41, 52, 532, 542, 552, 562, 572, 582, 592, 5112, 5122) to form the draining surface, the main body portion (41, 52, 532, 542, 552, 562, 572, 582, 592, 5112, 5122) comprising a circular structure, the circular structure having a lateral surrounding part and a circular face part together comprising a filter structure to drain water out of the pool body (11, 21, 151). a pool body (11, 21, 151, 161); a water inlet for supplying water into the pool body (11, 21, 151); a water outlet for draining the water outside the pool body (11, 21, 151); and an outlet valve (31, 41, 153, 155, 163) for covering the water outlet, wherein the outlet valve (31, 41, 153, 155, 163) has a draining surface for water flowing out of the pool body (11, 21, 151) in a draining direction, characterised in that: the outlet valve (153, 155) has a protrusion block (43, 51, 511, 531, 541, 551, 561, 571, 581, 591, 5111, 5121) protruding a protruding distance opposite to the draining direction from the draining surface to decrease risk of sucking the user at the water outlet; wherein the outlet valve (31, 41, 153, 155, 163) comprises a main body portion (41, 52, 532, 542, 552, 562, 572, 582, 592, 5112, 5122) to form the draining surface, the main body portion (41, 52, 532, 542, 552, 562, 572, 582, 592, 5112, 5122) comprising a circular structure, the circular structure having a lateral surrounding part and a circular face part together comprising a filter structure to drain water out of the pool body (11, 21, 151). the outlet valve (153, 155) has a protrusion block (43, 51, 511, 531, 541, 551, 561, 571, 581, 591, 5111, 5121) protruding a protruding distance opposite to the draining direction from the draining surface to decrease risk of sucking the user at the water outlet; wherein the outlet valve (31, 41, 153, 155, 163) comprises a main body portion (41, 52, 532, 542, 552, 562, 572, 582, 592, 5112, 5122) to form the draining surface, the main body portion (41, 52, 532, 542, 552, 562, 572, 582, 592, 5112, 5122) comprising a circular structure, the circular structure having a lateral surrounding part and a circular face part together comprising a filter structure to drain water out of the pool body (11, 21, 151).
A method of securing an elastomeric tube within a preferably annular groove contained in a sidewall of a pneumatic tire, the elastomeric tube defining a passageway for air from the outside of the tire to be pumped into an internal air cavity of the pneumatic tire, the method comprising the steps of: applying a rubber coating comprising a low viscosity, flowable, diene-based elastomer composition or an organic solvent solution comprising an organic solvent and a diene-based rubber composition on a groove surface or a tube surface; positioning said tube within the groove with said rubber coating between and thereby in contact with said tube and a groove wall; curing the rubber coating to thereby secure the tube within the groove; wherein the rubber coating is cured by sulfur curing or by chemical curing by other than sulfur curing. applying a rubber coating comprising a low viscosity, flowable, diene-based elastomer composition or an organic solvent solution comprising an organic solvent and a diene-based rubber composition on a groove surface or a tube surface; positioning said tube within the groove with said rubber coating between and thereby in contact with said tube and a groove wall; curing the rubber coating to thereby secure the tube within the groove;
An electrochemical glucose sensor configured for inserting into a vascular system of a host or into an extracorporeal device connected to a circulatory system of a host and for measuring an analyte concentration in a host, the sensor comprising: a working electrode having an electroactive surface; and a membrane system disposed on the electroactive surface, wherein the membrane system comprises an electrode domain 47 of a hydrophilic polymer, wherein the electrode domain is adjacent to the electroactive surface; an interference domain 48 comprising a blend of at least one hydrophilic component and at least one hydrophobic component such that the sensor provides an equivalent analyte signal response, to at least one interferent, that does not substantially affect accuracy of an in vivo analyte concentration measurement; an enzyme domain 49 disposed more distally from the electroactive surface than the interference domain; and a resistance domain 50 disposed more distal from the electroactive surface than the enzyme domain, wherein the electrode domain is more hydrophilic than the next more distal membrane or domain; wherein sensor break-in characterized by a current output from the glucose sensor that is stable relative to glucose level, in vivo, is less than 2 hours; and wherein the glucose sensor provides a linear response to glucose concentration, in vivo, within in a physiological range of glucose. a working electrode having an electroactive surface; and a membrane system disposed on the electroactive surface, wherein the membrane system comprises an electrode domain 47 of a hydrophilic polymer, wherein the electrode domain is adjacent to the electroactive surface; an interference domain 48 comprising a blend of at least one hydrophilic component and at least one hydrophobic component such that the sensor provides an equivalent analyte signal response, to at least one interferent, that does not substantially affect accuracy of an in vivo analyte concentration measurement; an enzyme domain 49 disposed more distally from the electroactive surface than the interference domain; and a resistance domain 50 disposed more distal from the electroactive surface than the enzyme domain, wherein the electrode domain is more hydrophilic than the next more distal membrane or domain; wherein sensor break-in characterized by a current output from the glucose sensor that is stable relative to glucose level, in vivo, is less than 2 hours; and wherein the glucose sensor provides a linear response to glucose concentration, in vivo, within in a physiological range of glucose.
A system for preventing microbiological growth in a conduit conveying a liquid, wherein the system comprises: - a multi-layered pipe constituting said conduit and having an inner layer and an outer layer, wherein the inner layer covers the complete inside of the pipe and is formed of an electrically conductive polymer material, wherein a liquid in the pipe is in direct contact with the inner layer, and wherein the outer layer covers at least a portion of the outside of the inner layer and is formed of an electrically insulating polymer material, Characterised by - a first electrical connector connecting to the inner layer from outside the pipe and a second electrical connector connecting to the inner layer from outside the pipe, wherein the first electric connector and the second electric connector are spaced apart along the pipe, and - an electric power source operationally connected to the first electrical connector and the second electrical connector and configured for supplying an electric current to the inner layer. - a multi-layered pipe constituting said conduit and having an inner layer and an outer layer, wherein the inner layer covers the complete inside of the pipe and is formed of an electrically conductive polymer material, wherein a liquid in the pipe is in direct contact with the inner layer, and wherein the outer layer covers at least a portion of the outside of the inner layer and is formed of an electrically insulating polymer material, - a first electrical connector connecting to the inner layer from outside the pipe and a second electrical connector connecting to the inner layer from outside the pipe, wherein the first electric connector and the second electric connector are spaced apart along the pipe, and - an electric power source operationally connected to the first electrical connector and the second electrical connector and configured for supplying an electric current to the inner layer.
An element for manipulating a hollow organ, consisting of: an elongate element having a substantially solid structure, the elongate element including: a distal end configured for insertion into the interior of a hollow organ; a distal portion adjacent to the distal end; a proximal end opposite from the distal end; and a proximal portion adjacent to the proximal end; and a manipulation section at the distal portion of the elongate element, wherein the manipulation section is configured as a waveform with a width of greater than 14 mm and a sufficient rigidity to flatten and/or move at least a portion of the hollow organ when placed within the hollow organ. an elongate element having a substantially solid structure, the elongate element including: a distal end configured for insertion into the interior of a hollow organ; a distal portion adjacent to the distal end; a proximal end opposite from the distal end; and a proximal portion adjacent to the proximal end; and a distal end configured for insertion into the interior of a hollow organ; a distal portion adjacent to the distal end; a proximal end opposite from the distal end; and a proximal portion adjacent to the proximal end; and a manipulation section at the distal portion of the elongate element, wherein the manipulation section is configured as a waveform with a width of greater than 14 mm and a sufficient rigidity to flatten and/or move at least a portion of the hollow organ when placed within the hollow organ.
A method by a User Equipment, UE, comprising: receiving a radio resource control, RRC, message, from a first evolved Node B, eNB, to configure dual connectivity and to map a data radio bearer, DRB, to at least a second set of one or more cells, wherein a signaling radio bearer, SRB, is mapped to a first set of one or more cells, a Packet Data Convergence Protocol, PDCP, entity, one or more Radio Link Control, RLC, entities and a Dedicated Traffic Channel, DTCH, logical channel are established for the DRB and a DRB for each set of one or more cells corresponds to a Medium Access Control, MAC, entity for each set of one or more cells. receiving a radio resource control, RRC, message, from a first evolved Node B, eNB, to configure dual connectivity and to map a data radio bearer, DRB, to at least a second set of one or more cells, wherein a signaling radio bearer, SRB, is mapped to a first set of one or more cells, a Packet Data Convergence Protocol, PDCP, entity, one or more Radio Link Control, RLC, entities and a Dedicated Traffic Channel, DTCH, logical channel are established for the DRB and a DRB for each set of one or more cells corresponds to a Medium Access Control, MAC, entity for each set of one or more cells.
A fundus observation device comprising: an image forming part comprising a first image forming part and a second image forming part, the first image forming part forming a 2-dimensional surface image of fundus oculi of an eye through optical processing, the second image forming part optically scanning a surface region of the fundus oculi corresponding to at least a part of the 2-dimensional surface image to form a tomographic image of the fundus oculi to form a 3-dimensional image; a controller configured to control the image forming part; and a storage configured to store control information including at least one of scanning control information, reference light amount control information and dispersion correction parameters, when forming one of the 2-dimensional surface image and the tomographic image is previously completed, and an input part configured to enter the patient identification information; wherein the controller (S2-S8), after said input part having been configured, is adapted to set the image forming part as indicated by the control information stored in the memory; wherein the image forming part (S9-S12) is adapted to form the one of the 2-dimensional surface image and the tomographic image under the setting of the control information. an image forming part comprising a first image forming part and a second image forming part, the first image forming part forming a 2-dimensional surface image of fundus oculi of an eye through optical processing, the second image forming part optically scanning a surface region of the fundus oculi corresponding to at least a part of the 2-dimensional surface image to form a tomographic image of the fundus oculi to form a 3-dimensional image; a controller configured to control the image forming part; and a storage configured to store control information including at least one of scanning control information, reference light amount control information and dispersion correction parameters, when forming one of the 2-dimensional surface image and the tomographic image is previously completed, and an input part configured to enter the patient identification information; wherein the controller (S2-S8), after said input part having been configured, is adapted to set the image forming part as indicated by the control information stored in the memory; wherein the image forming part (S9-S12) is adapted to form the one of the 2-dimensional surface image and the tomographic image under the setting of the control information.
An injection molding apparatus comprising a clamp plate, a heated manifold, an actuator interconnected to a valve pin having an axis, a mold and a cooling device that cools the actuator wherein, when assembled, the clamp plate is mounted upstream of the mold, the manifold being disposed between the clamp plate and the mold, wherein the cooling device comprises: a heat transmitter comprising a proximal base or member comprised of a heat conductive material and a distal arm or member comprised of a thermally conductive material, the distal arm or member or member being mounted by one or more spring loadable interconnections on or to the proximal base or member, the distal arm or member having a distal end surface for engaging the clamp plate (80, 80a) under a spring load and a proximal surface for transmitting heat from the proximal surface to the distal end surface, wherein the spring or spring loadable interconnection has an amount or degree of mass that renders the spring substantially non-heat conductive between the proximal and distal members, and wherein the clamp plate, the mold, the manifold, the actuator and the heat transmitter being assemblable together in an arrangement wherein the spring loadable interconnection is loaded urging the distal end surface of the distal arm or member into compressed engagement with the clamp plate (80, 80a) at least when the manifold is heated to an elevated operating temperature characterized in that: the distal member has a proximal exterior surface that is adapted to be engaged and slidable against a complementary surface (12ls, 12as) of the housing body (12, 12a) of the actuator such that heat thermally conducts between the housing body 12, 12a and the distal arm or member. a heat transmitter comprising a proximal base or member comprised of a heat conductive material and a distal arm or member comprised of a thermally conductive material, the distal arm or member or member being mounted by one or more spring loadable interconnections on or to the proximal base or member, the distal arm or member having a distal end surface for engaging the clamp plate (80, 80a) under a spring load and a proximal surface for transmitting heat from the proximal surface to the distal end surface, wherein the spring or spring loadable interconnection has an amount or degree of mass that renders the spring substantially non-heat conductive between the proximal and distal members, and wherein the clamp plate, the mold, the manifold, the actuator and the heat transmitter being assemblable together in an arrangement wherein the spring loadable interconnection is loaded urging the distal end surface of the distal arm or member into compressed engagement with the clamp plate (80, 80a) at least when the manifold is heated to an elevated operating temperature characterized in that: the distal member has a proximal exterior surface that is adapted to be engaged and slidable against a complementary surface (12ls, 12as) of the housing body (12, 12a) of the actuator such that heat thermally conducts between the housing body 12, 12a and the distal arm or member.
Container treatment device, especially filler, comprising a container feeding unit, a container removing unit, at least one feed line for at least one product, and a cleaning device having a flushing device at least for cleaning the exterior surfaces by means of a cleaning fluid, wherein an additional tool (9, 10) can be connected to the cleaning device in addition to the flushing device or instead of same, wherein the cleaning device comprises a robot or robot arm, which comprises the flushing device and arranged on which is a gripper and/or holder, which transfers the additional tool (9, 10) into the position of use, characterised in that the additional tool is formed as a flushing cap, and that the cleaning device is arranged in such a way that the flushing cap can be removed by means of the robot of the cleaning device from a storage device and can be transferred by the cleaning device into a position of use and can be returned by the robot after use to the storage device.
A domestic garbage container having an opening for garbage to be deposited into the interior thereof and integrating a cleaning or disinfection device so configured as to supply a cleaning or disinfection fluid to the interior of the container, with the cleaning or disinfection device comprising means for supplying a dose of fluid to the interior of the container, so configured as to supply the dose of the fluid after a motion of the container and then the return thereof to the normal in-use position, characterized in that the supplying means comprise means for forming a dose of fluid inside the container and means for spraying said fluid in the container, with the forming means being active during the motion, which is a tilting of the container to the position for emptying the garbage contained therein and the spraying means being active when the container has been returned to the normal in-use position thereof.
Thread clamping device for a spindle of a spinning or twisting machine for releasably fixing a thread in a clamping gap, comprising - a first clamping unit having an inner sleeve (3a, 3b) which can be arranged coaxially to the spindle, and a thread separator (4a, 4b, 4c) which can be fixed to the inner sleeve (3a, 3b) in the axial direction, the first clamping unit being fixable in an axially positioned manner to an upper part of the spindle, and - a second clamping unit having a clamping element which is axially adjustable relative to the first clamping unit between a clamping position closing the clamping gap between the thread separator (4a, 4b, 4c) and the clamping element and an opening position exposing the clamping gap, the thread separator (4a, 4b, 4c) being designed for axially positioning and fixing the inner sleeve (3a, 3b) to the spindle upper part and for connecting the inner sleeve (3a, 3b) to the spindle upper part for conjoint twisting, and the thread separator (4a, 4b, 4c) and the inner sleeve (3a, 3b) being connectable to one another for conjoint twisting, characterized in that the thread separator (4a, 4b, 4c) has engagement elements which can be brought into engagement with a contact portion (8a, 8b) on the inner sleeve (3a, 3b), or a connecting element is arranged in the region between a contact portion (8a, 8b) on the inner sleeve (3a, 3b) and the thread separator (4a, 4b, 4c), which connecting element is force-fittingly and/or form-fittingly connected to the contact portion (8a, 8b) and the thread separator (4a, 4b, 4c) for conjoint twisting. - a first clamping unit having an inner sleeve (3a, 3b) which can be arranged coaxially to the spindle, and a thread separator (4a, 4b, 4c) which can be fixed to the inner sleeve (3a, 3b) in the axial direction, the first clamping unit being fixable in an axially positioned manner to an upper part of the spindle, and - a second clamping unit having a clamping element which is axially adjustable relative to the first clamping unit between a clamping position closing the clamping gap between the thread separator (4a, 4b, 4c) and the clamping element and an opening position exposing the clamping gap, the thread separator (4a, 4b, 4c) being designed for axially positioning and fixing the inner sleeve (3a, 3b) to the spindle upper part and for connecting the inner sleeve (3a, 3b) to the spindle upper part for conjoint twisting, and the thread separator (4a, 4b, 4c) and the inner sleeve (3a, 3b) being connectable to one another for conjoint twisting, characterized in that the thread separator (4a, 4b, 4c) has engagement elements which can be brought into engagement with a contact portion (8a, 8b) on the inner sleeve (3a, 3b), or a connecting element is arranged in the region between a contact portion (8a, 8b) on the inner sleeve (3a, 3b) and the thread separator (4a, 4b, 4c), which connecting element is force-fittingly and/or form-fittingly connected to the contact portion (8a, 8b) and the thread separator (4a, 4b, 4c) for conjoint twisting.
An electromagnetic shielding configuration comprising: a first electrically conductive wall (402,1003) having a first surface; and a second electrically conductive wall having a second surface, wherein the first surface is oppositely disposed from the second surface, and wherein the interfacing of the first conductive wall (402,1003) and the second conductive wall forms an enclosure wall, characterized in that: the first surface comprises a corrugated surface formed by a series of apices extending from the first surface, the corrugated surface being shaped as a serrated edge surface, which comprises a plurality of ridges that are inclined relative to the surface of the enclosure wall; and the first surface forms an intimate continuous contact with the second surface during the interfacing of the first conductive wall (402,1003) and the second conductive wall. a first electrically conductive wall (402,1003) having a first surface; and a second electrically conductive wall having a second surface, wherein the first surface is oppositely disposed from the second surface, and wherein the interfacing of the first conductive wall (402,1003) and the second conductive wall forms an enclosure wall, characterized in that: the first surface comprises a corrugated surface formed by a series of apices extending from the first surface, the corrugated surface being shaped as a serrated edge surface, which comprises a plurality of ridges that are inclined relative to the surface of the enclosure wall; and the first surface forms an intimate continuous contact with the second surface during the interfacing of the first conductive wall (402,1003) and the second conductive wall. the first surface comprises a corrugated surface formed by a series of apices extending from the first surface, the corrugated surface being shaped as a serrated edge surface, which comprises a plurality of ridges that are inclined relative to the surface of the enclosure wall; and the first surface forms an intimate continuous contact with the second surface during the interfacing of the first conductive wall (402,1003) and the second conductive wall.