mhurhangee/ep-ind-claims huggingface dataset:
A surgical fastener deployment system including: a distal most coil fastener including a head attached to a coil body extending from the head and a distal tip at a distal most end of the coil body; a first shaft including a proximal end and a distal end, the distal end of the first shaft also defining a distal end of the surgical fastener deployment system, wherein the distal most coil fastener is disposed in the first shaft; a guiding element comprising a deflectable latch including a protruding surface that extends inwardly toward the coil body of the distal most coil fastener to engage the coil body, and wherein the guiding element is configured to deflect out of a path of the head of the distal most coil fastener as the distal most coil fastener is moved in a distal direction, characterised in that the protruding surface of the guiding element comprises a latch tip at the distal end of the first shaft such that the latch tip remains engaged with the coil body to guide the coil body as the distal tip of the distal most coil fastener is deployed out of the distal end and into a prosthetic and/or tissue, and wherein the latch tip is angled to correspond to the helix angle of the coil body. a distal most coil fastener including a head attached to a coil body extending from the head and a distal tip at a distal most end of the coil body; a first shaft including a proximal end and a distal end, the distal end of the first shaft also defining a distal end of the surgical fastener deployment system, wherein the distal most coil fastener is disposed in the first shaft; a guiding element comprising a deflectable latch including a protruding surface that extends inwardly toward the coil body of the distal most coil fastener to engage the coil body, and wherein the guiding element is configured to deflect out of a path of the head of the distal most coil fastener as the distal most coil fastener is moved in a distal direction, characterised in that the protruding surface of the guiding element comprises a latch tip at the distal end of the first shaft such that the latch tip remains engaged with the coil body to guide the coil body as the distal tip of the distal most coil fastener is deployed out of the distal end and into a prosthetic and/or tissue, and wherein the latch tip is angled to correspond to the helix angle of the coil body.
Kit for reduction of blood components in a blood-related medium 12, wherein it comprises: - a gel bead container 1 containing gel beads 2 and provided with an outlet tube 3, wherein the gel beads 2 contain at least one covalently bound antigen or antigen derivative having the ability to bind at least one plasma component, - a drip chamber 4 provided with an inlet tube 5 and an outlet tube 6, wherein the drip chamber 4 in the bottom thereof is provided with a porous net 14 having a porosity which does not allow passage of the gel beads 2, - a collection container 10 provided with an inlet tube 11, and - a medium container 13 adapted to contain a blood-related medium 12 and provided with an outlet tube 15, wherein the outlet tube 3 of the gel bead container 1 is connectable with the inlet tube 5 of the drip chamber 4 via a sterile connecting device, wherein the outlet tube 6 of the drip chamber is connectable with the inlet tube 11 of the collection container 10 via a sterile connecting device, and wherein the outlet tube 15 of the medium container 13 is connectable to the inlet tube 5 of the drip chamber 4 via a sterile connecting device. - a gel bead container 1 containing gel beads 2 and provided with an outlet tube 3, wherein the gel beads 2 contain at least one covalently bound antigen or antigen derivative having the ability to bind at least one plasma component, - a drip chamber 4 provided with an inlet tube 5 and an outlet tube 6, wherein the drip chamber 4 in the bottom thereof is provided with a porous net 14 having a porosity which does not allow passage of the gel beads 2, - a collection container 10 provided with an inlet tube 11, and - a medium container 13 adapted to contain a blood-related medium 12 and provided with an outlet tube 15, wherein the outlet tube 3 of the gel bead container 1 is connectable with the inlet tube 5 of the drip chamber 4 via a sterile connecting device, wherein the outlet tube 6 of the drip chamber is connectable with the inlet tube 11 of the collection container 10 via a sterile connecting device, and wherein the outlet tube 15 of the medium container 13 is connectable to the inlet tube 5 of the drip chamber 4 via a sterile connecting device. wherein the outlet tube 3 of the gel bead container 1 is connectable with the inlet tube 5 of the drip chamber 4 via a sterile connecting device, wherein the outlet tube 6 of the drip chamber is connectable with the inlet tube 11 of the collection container 10 via a sterile connecting device, and wherein the outlet tube 15 of the medium container 13 is connectable to the inlet tube 5 of the drip chamber 4 via a sterile connecting device.
An automated and robotized platform comprising a battery of miniaturized reactors the useful volume of which is in the range 2 mL to 500 mL, each containing a cell culture, the platform comprising: • an external sensor for measuring at least one optical property of each cell culture contained in each miniaturized reactor; • a mobile sensor holder in the form of a fork or stirrup, capable of receiving the external sensor, the sensor holder comprising means for displacing the sensor in order to displace the external sensor from one miniaturized reactor to another and to allow said at least one optical property to be measured in real time; • processing and control means for receiving the measurements of the optical property from the external sensor in real time and for controlling a displacement of the mobile sensor holder in real time; and • a temperature regulating system for each miniaturized reactor. • an external sensor for measuring at least one optical property of each cell culture contained in each miniaturized reactor; • a mobile sensor holder in the form of a fork or stirrup, capable of receiving the external sensor, the sensor holder comprising means for displacing the sensor in order to displace the external sensor from one miniaturized reactor to another and to allow said at least one optical property to be measured in real time; • processing and control means for receiving the measurements of the optical property from the external sensor in real time and for controlling a displacement of the mobile sensor holder in real time; and • a temperature regulating system for each miniaturized reactor.
A display device comprising a plurality of device packages and at least one display tile, wherein the plurality of device packages and the at least one display tile are disposed in a tiled, two-dimensional array to form a planar surface of the display device for viewing a light field that represents a three dimensional scene; wherein each of the at least one display tiles is adjacent to at least one display device package, and includes at least one light field projection unit and does not include a rendering engine; wherein each of the plurality of device packages comprises: a respective rendering engine configured to receive scene data that describes the 3D scene and generate light field data for the light field; a respective at least one light field projection unit configured to receive the light field data from the respective rendering engine and output at least a portion of the light field; a respective at least one internal communication channel operatively coupling the at least one light field projection unit to the rendering engine; an inter-package communication unit operably coupled to the rendering engine and configured to send at least a portion of the light field generated by the rendering engine to an adjacent display tile; and a respective housing containing the rendering engine, the at least one light field projection unit, the at least one internal communication channel, and an inter-package communication unit in a single package; wherein each of the plurality of display tiles is configured to output the at least portion of the light field without modifying the received light field data. a respective rendering engine configured to receive scene data that describes the 3D scene and generate light field data for the light field; a respective at least one light field projection unit configured to receive the light field data from the respective rendering engine and output at least a portion of the light field; a respective at least one internal communication channel operatively coupling the at least one light field projection unit to the rendering engine; an inter-package communication unit operably coupled to the rendering engine and configured to send at least a portion of the light field generated by the rendering engine to an adjacent display tile; and a respective housing containing the rendering engine, the at least one light field projection unit, the at least one internal communication channel, and an inter-package communication unit in a single package;
A hand-operated tool, comprising: a pair of cutting blades (1, 1) or pressers (1', 1'), left and right; a pair of operating handles (3, 3), left and right, connected to said blades (1, 1) or pressers (1', 1') via pivots (2, 2); and one connecting pin that directly connects said blades (1, 1) or pressers (1', 1') to each other or a connection plate that connects said blades (1, 1) or pressers (1', 1') to each other using connecting pins (4, 4), and being configured so that: upper portions of the operating handles (3, 3) are disposed so as to abut in the same plane, and the opposing surfaces (31, 31) thereof form cam contact surfaces (32, 32) in a certain arc form that directly make contact with each other, characterized in that between said pivots (2, 2) and pivot pins (6, 6) provided in the other operating handles (3, 3), respectively, two connection fittings (7, 7) that connect the left and right handles (3, 3) on the front and back surfaces separately are disposed diagonally in a crisscross shape as viewed from the front, thereby connecting the respective upper and lower ends (7a, 7b) of the connection fittings (7, 7) to said pivots (2, 2) and said pivot pins (6, 6). upper portions of the operating handles (3, 3) are disposed so as to abut in the same plane, and the opposing surfaces (31, 31) thereof form cam contact surfaces (32, 32) in a certain arc form that directly make contact with each other, characterized in that between said pivots (2, 2) and pivot pins (6, 6) provided in the other operating handles (3, 3), respectively, two connection fittings (7, 7) that connect the left and right handles (3, 3) on the front and back surfaces separately are disposed diagonally in a crisscross shape as viewed from the front, thereby connecting the respective upper and lower ends (7a, 7b) of the connection fittings (7, 7) to said pivots (2, 2) and said pivot pins (6, 6).
A process connection, in particular for a sensor unit in a process plant, wherein the process connection comprises: an external threaded adapter which has a screw-in passage and which is provided with an internal thread; an internal threaded adapter having a cylindrical through passage and an external thread; and an annular molded seal, wherein the external threaded adapter has a radially peripheral inwardly projecting hollow cylindrical projection at one end of the screw-in passage, wherein the external thread of the internal threaded adapter is in screw engagement with the internal thread of the external threaded adapter, wherein the annular molded seal contacts said hollow cylindrical projection in the axial and radial direction within the screw-in passage of the external threaded adapter, wherein the internal threaded adapter is configured to press the molded seal in the axial direction onto a cover surface of the hollow cylindrical projection of the external threaded adapter, said cover surface being substantially oriented to the axial direction, characterized in that the process connection has a spacer ring which radially surrounds the molded seal in the interior of the external threaded adapter and rests on the hollow cylindrical projection, wherein the spacer ring is configured to limit a radial deformation of the molded seal during the pressing by the internal threaded adapter and/or the degree of the maximum axial pressing of the molded seal by the internal threaded adapter. an external threaded adapter which has a screw-in passage and which is provided with an internal thread; an internal threaded adapter having a cylindrical through passage and an external thread; and an annular molded seal, wherein the external threaded adapter has a radially peripheral inwardly projecting hollow cylindrical projection at one end of the screw-in passage, wherein the external thread of the internal threaded adapter is in screw engagement with the internal thread of the external threaded adapter, wherein the annular molded seal contacts said hollow cylindrical projection in the axial and radial direction within the screw-in passage of the external threaded adapter, wherein the internal threaded adapter is configured to press the molded seal in the axial direction onto a cover surface of the hollow cylindrical projection of the external threaded adapter, said cover surface being substantially oriented to the axial direction, characterized in that the process connection has a spacer ring which radially surrounds the molded seal in the interior of the external threaded adapter and rests on the hollow cylindrical projection, wherein the spacer ring is configured to limit a radial deformation of the molded seal during the pressing by the internal threaded adapter and/or the degree of the maximum axial pressing of the molded seal by the internal threaded adapter.
A fixing apparatus, comprising: a rotating body (56, 53) configured to convey a sheet in a first direction by rotating; a first heating section configured to heat the rotating body and in which a calorific value per unit length in a second direction orthogonal to the first direction, at the center of the first heating section in the second direction is larger than that at both ends of the first heating section in the second direction; a second heating section configured to heat the rotating body (56, 53) and in which a calorific value per unit length in the second direction, at both ends of the second heating section in the second direction is larger than that at the center of the second heating section in the second direction; a first temperature detector configured to detect a temperature of a central part of a heating area of the rotating body (56, 53) in the second direction, that is heated by at least one of the first heating section and the second heating section; a second temperature detector configured to detect a temperature outside of the heating area of the rotating body (56, 53) in the second direction; characterized by further comprising: a fixing controller configured to perform an out-of-area temperature control at the time the temperature detected by the first temperature detector is equal to or lower than a predetermined internal temperature threshold value, so as to drive the second heating section without driving the first heating section to heat the rotating body (56, 53) in a case where the temperature detected by the second temperature detector is lower than a first temperature threshold value, and drive the first heating section without driving the second heating section to heat the rotating body (56, 53) in a case where the temperature detected by the second temperature detector is equal to or higher than the first temperature threshold value. a rotating body (56, 53) configured to convey a sheet in a first direction by rotating; a first heating section configured to heat the rotating body and in which a calorific value per unit length in a second direction orthogonal to the first direction, at the center of the first heating section in the second direction is larger than that at both ends of the first heating section in the second direction; a second heating section configured to heat the rotating body (56, 53) and in which a calorific value per unit length in the second direction, at both ends of the second heating section in the second direction is larger than that at the center of the second heating section in the second direction; a first temperature detector configured to detect a temperature of a central part of a heating area of the rotating body (56, 53) in the second direction, that is heated by at least one of the first heating section and the second heating section; a second temperature detector configured to detect a temperature outside of the heating area of the rotating body (56, 53) in the second direction;
A method comprising: establishing a control connection between a two-way active measurement protocol, TWAMP, control client executed on a first network device and a TWAMP server executed on a second network device; negotiating, by the TWAMP control client and the TWAMP server over the control connection, a data session between a TWAMP session sender executed on the first network device and a TWAMP session reflector executed on the second network device, wherein negotiating the data session includes specifying a subscriber identifier for an individual subscriber of a service provider network, wherein the individual subscriber is associated with the first network device, and wherein the first network device is configured to source subscriber traffic; and exchanging one or more TWAMP test packets for the data session between the TWAMP session sender and the TWAMP session reflector, each of the one or more TWAMP test packets including the subscriber identifier for the subscriber. establishing a control connection between a two-way active measurement protocol, TWAMP, control client executed on a first network device and a TWAMP server executed on a second network device; negotiating, by the TWAMP control client and the TWAMP server over the control connection, a data session between a TWAMP session sender executed on the first network device and a TWAMP session reflector executed on the second network device, wherein negotiating the data session includes specifying a subscriber identifier for an individual subscriber of a service provider network, wherein the individual subscriber is associated with the first network device, and wherein the first network device is configured to source subscriber traffic; and exchanging one or more TWAMP test packets for the data session between the TWAMP session sender and the TWAMP session reflector, each of the one or more TWAMP test packets including the subscriber identifier for the subscriber.
A method for enriching CD4+ and CD8+ T cells, the method comprising: (a) performing a first selection in a closed system, said first selection comprising enriching for one of (i) CD4+ cells and (ii) CD8+ cells from a sample containing primary human T cells, the enrichment thereby generating a first selected population and a non-selected population; and (b) performing a second selection in the closed system, said second selection comprising enriching for the other of (i) CD4+ cells and (ii) CD8+ cells from the non-selected population, the enrichment thereby generating a second selected population. (a) performing a first selection in a closed system, said first selection comprising enriching for one of (i) CD4+ cells and (ii) CD8+ cells from a sample containing primary human T cells, the enrichment thereby generating a first selected population and a non-selected population; and (b) performing a second selection in the closed system, said second selection comprising enriching for the other of (i) CD4+ cells and (ii) CD8+ cells from the non-selected population, the enrichment thereby generating a second selected population.
A machine tool capable of performing a turning process using a fixed tool and a milling process using a rotating tool, comprising: a tool spindle having an air supply portion supplying air, for rotating the rotating tool; a tool rest for mounting a plurality of fixed tools thereon; a tool holder having a restraining surface restraining a tool, and attached to said tool rest, for detachably holding the tool; an automatic tool changer for automatically changing the tool held in said tool holder; and a special tool mounted on said tool spindle, into which the air is introduced from said air supply portion, wherein when the tool is automatically changed by said automatic tool changer, said special tool mounted on said tool spindle is coupled to said tool holder, and the air from said air supply portion is supplied to said restraining surface through said special tool. a tool spindle having an air supply portion supplying air, for rotating the rotating tool; a tool rest for mounting a plurality of fixed tools thereon; a tool holder having a restraining surface restraining a tool, and attached to said tool rest, for detachably holding the tool; an automatic tool changer for automatically changing the tool held in said tool holder; and a special tool mounted on said tool spindle, into which the air is introduced from said air supply portion, wherein
Process for producing a food based on leavened puff pastry dough or puff pastry dough, comprising the following steps: (i) preparing a leavened puff pastry dough or puff pastry dough comprising flour and water, (ii) kneading the dough, (iii) fashioning the dough to obtain the raw food, characterized in that it comprises the following steps: (iv) shaping at least one surface of the raw food in the shape of a single arch, or in the form of multiple, tandemly arranged arches, wherein said food product comprises two or more support points located at the ends of said food, formed by said arch or tandemly arranged arches, (v) freezing and/or deep-freezing the raw food in said arch or multiple arch shape, (vi) positioning the frozen or deep-frozen food on a baking support in a raised (up-right position) position on said at least two support points, in the shape of an arch, and baking the food product whereby the concave surface of said food is facing the baking support; or positioning the frozen or deep-frozen food on a baking support on said multiple arch-shaped surface, the more than two support points contacting the baking support in an undulated manner; and baking the food product. (i) preparing a leavened puff pastry dough or puff pastry dough comprising flour and water, (ii) kneading the dough, (iii) fashioning the dough to obtain the raw food, (iv) shaping at least one surface of the raw food in the shape of a single arch, or in the form of multiple, tandemly arranged arches, wherein said food product comprises two or more support points located at the ends of said food, formed by said arch or tandemly arranged arches, (v) freezing and/or deep-freezing the raw food in said arch or multiple arch shape, (vi) positioning the frozen or deep-frozen food on a baking support in a raised (up-right position) position on said at least two support points, in the shape of an arch, and baking the food product whereby the concave surface of said food is facing the baking support; or positioning the frozen or deep-frozen food on a baking support on said multiple arch-shaped surface, the more than two support points contacting the baking support in an undulated manner; and baking the food product.