mhurhangee/ep-ind-claims huggingface dataset:
Apparatus (1, 101) for producing an object (3, 103) by means of additive manufacturing, comprising: - a process chamber (5, 105) for receiving on a build surface (7, 107) of a build plate (9, 109) a bath of powdered material (11, 111) which can be solidified; - a support (13, 113) for positioning the build plate (9, 109) in relation to a surface level of the bath of material; - a solidifying device (15, 115) for solidifying a selective part of the material (11, 111); and - a build plate preparation means (17, 19, 117, 119) for preparation of the build surface (7, 107) of the build plate (9, 109) such that the object (3, 103) can be built on the build surface (7, 107) of the build plate (9, 109); - displacement means (25, 125) provided for displacing the build plate (9, 109) between a first position wherein the build surface (7, 107) of the build plate (9, 109) is received in the process chamber (5, 105) for receiving on the build surface (7, 107) of the build plate (9, 109) the bath of powdered material (11, 111) which can be solidified, and a second position wherein the build surface (7, 107) of the build plate (9, 109) is positioned for preparation of the build surface (7, 107) of the build plate (9, 109), wherein the displacement means (25, 125) comprise a substantial horizontal axis for rotation of the build plate (9, 109) about said substantial horizontal axis between the first position and second position. - a process chamber (5, 105) for receiving on a build surface (7, 107) of a build plate (9, 109) a bath of powdered material (11, 111) which can be solidified; - a support (13, 113) for positioning the build plate (9, 109) in relation to a surface level of the bath of material; - a solidifying device (15, 115) for solidifying a selective part of the material (11, 111); and - a build plate preparation means (17, 19, 117, 119) for preparation of the build surface (7, 107) of the build plate (9, 109) such that the object (3, 103) can be built on the build surface (7, 107) of the build plate (9, 109); - displacement means (25, 125) provided for displacing the build plate (9, 109) between a first position wherein the build surface (7, 107) of the build plate (9, 109) is received in the process chamber (5, 105) for receiving on the build surface (7, 107) of the build plate (9, 109) the bath of powdered material (11, 111) which can be solidified, and a second position wherein the build surface (7, 107) of the build plate (9, 109) is positioned for preparation of the build surface (7, 107) of the build plate (9, 109), wherein the displacement means (25, 125) comprise a substantial horizontal axis for rotation of the build plate (9, 109) about said substantial horizontal axis between the first position and second position.
A device for collecting a blood sample, characterized by: a collection unit comprising: a top window; a top surface; a channel communicated with the top window; at least one capillary tube having a top end adjacent to the top window; wherein a distance between the top end of the at least one capillary tube and the top surface of the collection unit is in a range of 1.0 mm to 5.0 mm, such that the top end of the at least one capillary tube is used to contact with a blood drop from a puncture to continuously draw the blood flowing inside or along the at least one capillary tube into a storage unit by disrupting a surface tension of the blood drop, and a vacuum connector communicated with the channel, and connected to a pressure control unit to remove air from the channel and create an alternating negative pressure in the channel; and the storage unit disposed under the collection unit. a collection unit comprising: a top window; a top surface; a channel communicated with the top window; at least one capillary tube having a top end adjacent to the top window; wherein a distance between the top end of the at least one capillary tube and the top surface of the collection unit is in a range of 1.0 mm to 5.0 mm, such that the top end of the at least one capillary tube is used to contact with a blood drop from a puncture to continuously draw the blood flowing inside or along the at least one capillary tube into a storage unit by disrupting a surface tension of the blood drop, and a vacuum connector communicated with the channel, and connected to a pressure control unit to remove air from the channel and create an alternating negative pressure in the channel; and a top window; a top surface; a channel communicated with the top window; at least one capillary tube having a top end adjacent to the top window; wherein a distance between the top end of the at least one capillary tube and the top surface of the collection unit is in a range of 1.0 mm to 5.0 mm, such that the top end of the at least one capillary tube is used to contact with a blood drop from a puncture to continuously draw the blood flowing inside or along the at least one capillary tube into a storage unit by disrupting a surface tension of the blood drop, and a vacuum connector communicated with the channel, and connected to a pressure control unit to remove air from the channel and create an alternating negative pressure in the channel; and the storage unit disposed under the collection unit.
A method, comprising: determining in a base station servicing a local area that an additional channel is needed; characterized by receiving a report from a user equipment connected to the base station over an air interface indicating a gain in capacity that would occur due to the additional channel; adding a new channel; receiving a loss report from one or more neighboring base stations (41,42,43) indicating a loss in capacity of, or interference caused to at least one user equipment serviced by, the neighboring base stations; comparing the gain in capacity to the loss in capacity of, or interference caused to, the at least one user equipment; and determining whether, based on the comparison, to continue to add the new channel to increase capacity. determining in a base station servicing a local area that an additional channel is needed; characterized by receiving a report from a user equipment connected to the base station over an air interface indicating a gain in capacity that would occur due to the additional channel; adding a new channel; receiving a loss report from one or more neighboring base stations (41,42,43) indicating a loss in capacity of, or interference caused to at least one user equipment serviced by, the neighboring base stations; comparing the gain in capacity to the loss in capacity of, or interference caused to, the at least one user equipment; and determining whether, based on the comparison, to continue to add the new channel to increase capacity.
A luminaire comprising: a. one or more light-emitting elements (LEEs) arranged to provide light within a first angular range; b. one or more couplers arranged to receive light from the one or more LEEs and configured to provide light within a second angular range; c. a light guide comprising an input end and an output end at opposing ends of the light guide and a pair of opposing surfaces both extending along an axis of the light guide, the light guide being arranged to receive light from the one or more couplers at an input end and guide light along the axis to the output end of the light guide; d. a diffuser adjacent the light guide and configured to diffuse at least a portion of the light output by the light guide; and e. a reflector having two or more surfaces (152; 154), the reflector being positioned to receive the light emitted from the output end of the light guide, such that light output by the light guide without impinging on the diffuser impinges on only one of the surfaces of the reflector, wherein, when operated, the luminaire outputs light within a first output angular range and a second output angular range (141; 151 or 151; 153), wherein the diffuser is a transmitting diffuser at the output end of the light guide, and the reflector is spaced apart from the diffuser and oriented to receive diffusely transmitted light from the diffuser and is configured to redirect the diffusely transmitted light in the first and second output angular ranges (151; 153), or wherein the diffuser is a transmitting diffuser at a side surface of the light guide adjacent the output end and is configured to provide diffusely transmitted light in the first output angular range, and the reflector is spaced apart from the diffuser and oriented to receive light from the output end of the light guide and is configured to redirect the received light in the second output angular range. a. one or more light-emitting elements (LEEs) arranged to provide light within a first angular range; b. one or more couplers arranged to receive light from the one or more LEEs and configured to provide light within a second angular range; c. a light guide comprising an input end and an output end at opposing ends of the light guide and a pair of opposing surfaces both extending along an axis of the light guide, the light guide being arranged to receive light from the one or more couplers at an input end and guide light along the axis to the output end of the light guide; d. a diffuser adjacent the light guide and configured to diffuse at least a portion of the light output by the light guide; and e. a reflector having two or more surfaces (152; 154), the reflector being positioned to receive the light emitted from the output end of the light guide, such that light output by the light guide without impinging on the diffuser impinges on only one of the surfaces of the reflector,
A device intended to be attached to or interconnected with a medical implant, wherein the implant is foldable and/or unfoldable, the device comprising a portion intended for folding and/or unfolding the implant, the implant or the device comprising first folding and/or unfolding means for folding and/or unfolding the implant characterized in that at least one portion of the first folding and/or unfolding means is attached to the portion of the device intended for folding and/or unfolding the implant, and wherein the portion is rotatably supported within the device such that the first folding and/or unfolding means are wound around an outer surface of the portion during the rotation of the portion.
A process for separating an alkylation product, which is characterized in that a liquid phase alkylation product from an alkylation reaction unit is introduced into a first heat-exchanger directly or after being pressurized with a pressure pump and heat-exchanged with a vapor phase stream from the column top of a high-pressure fractionating column, then introduced into a second heat-exchanger and further heated to 100°C-180°C, then introduced into the high-pressure fractionating column and subjected to fractionation under a condition of 2.0MPa-6.0MPa, the vapor phase stream from the column top of the high-pressure fractionating column is heat-exchanged with the liquid phase alkylation product to be separated, a liquid phase stream from the column bottom of the high-pressure fractionating column is introduced into a low-pressure fractionating column and subjected to fractionation under a condition of 0.2MPa-1.0MPa, a low-carbon alkane is obtained from the column top of the low-pressure fractionating colum, and a liquid phase stream obtained from the column bottom of the low-pressure fractionating colum is an alkylation oil product; wherein an inter-reboiler is provided to the low-pressure fractionating column, and the vapor phase stream from the column top of the high-pressure fractionating column is heat-exchanged in the first heat-exchanger and then used as the heating source for the inter-reboiler.
Air filter system for the intake air of an internal combustion engine, comprising - a housing having a longitudinal axis, - a cover which closes the housing at a front face, - an inlet disposed at the housing for supplying a medium to be filtered and an outlet disposed at the housing for discharging the filtered medium, - an exchangeable filter element which is disposed in the housing and comprises a filter body, a first open end disc disposed at a front face and a second end disc disposed at the opposite front face, - a support tube firmly attached to the housing which is concentrically disposed inside the filter element around the longitudinal axis, in particular for radially supporting the filter body, - an exchangeable secondary element having an open end and a closed end which is disposed inside the support tube and attached with the open end in a housing seat, wherein the filter element is mounted with the second end disc resting on the support tube and on the closed end of the secondary element on an inner cover contour in a rotationally secure manner, wherein the second end disc features a plurality of eccentric, regularly or irregularly spaced support knobs arranged circularly around the longitudinal axis for axial force transmission between the cover and the support tube, wherein the second end disc features furthermore a central support knob for axial force transmission between cover and secondary element. - a housing having a longitudinal axis, - a cover which closes the housing at a front face, - an inlet disposed at the housing for supplying a medium to be filtered and an outlet disposed at the housing for discharging the filtered medium, - an exchangeable filter element which is disposed in the housing and comprises a filter body, a first open end disc disposed at a front face and a second end disc disposed at the opposite front face, - a support tube firmly attached to the housing which is concentrically disposed inside the filter element around the longitudinal axis, in particular for radially supporting the filter body, - an exchangeable secondary element having an open end and a closed end which is disposed inside the support tube and attached with the open end in a housing seat,
Combustion or precombustion chambers for a gas-powered fixing tool, comprising a casing (62,68) defining a first combustion cavity having a generally elongate form of longitudinal axis X, and a second combustion cavity, ignition means, such as a spark plug, being situated at a longitudinal end of said cavity and a longitudinal end of said first cavity, which is opposite said ignition means, being fluidically connected with said second cavity, characterized in that said first cavity has a variable cross section along said axis X, said first cavity having a generally staged form and comprising at least one first portion of cross section S1 and one second portion of cross section S2, with S1 smaller than S2, said ignition means being situated in said first portion.
A method for producing a composite body from a basic body of opaque quartz glass and a dense sealing layer, the method comprising the following steps: (a) producing the basic body by using a first slip which contains a first dispersion liquid and first amorphous SiO 2 particles having particle sizes of not more than 500 μm, particles with particle sizes in the range between 1 μm and 60 μm accounting for the largest solids volume fraction, which contains a first quantitative amount of SiO 2 nanoparticles with particle sizes of less than 100 nm, and which is distinguished by a first higher vitrification temperature; (b) providing a second slip which contains a second dispersion liquid and second amorphous SiO 2 particles having particle sizes of not more than 100 μm, particles with particle sizes in the range between 1 μm and 40 μm accounting for the largest solids volume fraction, and the composition of which differs from that of the first slip at least in that it contains a second quantitative amount of SiO 2 nanoparticles which in the range between 0.2% by wt. to 15% by wt. is greater than the first quantitative amount (based each time on the total solids content), and which is distinguished by a second lower vitrification temperature; (c) producing a slip layer from the second slip on a surface of the basic body, drying the slip layer, (d) and subsequently vitrifying the slip layer so as to form so as to form of the dense sealing layer. (a) producing the basic body by using a first slip which contains a first dispersion liquid and first amorphous SiO 2 particles having particle sizes of not more than 500 μm, particles with particle sizes in the range between 1 μm and 60 μm accounting for the largest solids volume fraction, which contains a first quantitative amount of SiO 2 nanoparticles with particle sizes of less than 100 nm, and which is distinguished by a first higher vitrification temperature; (b) providing a second slip which contains a second dispersion liquid and second amorphous SiO 2 particles having particle sizes of not more than 100 μm, particles with particle sizes in the range between 1 μm and 40 μm accounting for the largest solids volume fraction, and the composition of which differs from that of the first slip at least in that it contains a second quantitative amount of SiO 2 nanoparticles which in the range between 0.2% by wt. to 15% by wt. is greater than the first quantitative amount (based each time on the total solids content), and which is distinguished by a second lower vitrification temperature; (c) producing a slip layer from the second slip on a surface of the basic body, drying the slip layer, (d) and subsequently vitrifying the slip layer so as to form so as to form of the dense sealing layer.
An implantable direct-current electrode assembly (20, 120) comprising two implantable electrodes (30; 140) and a control circuit, wherein the first and second electrodes (30; 140) are electrically connected to the control circuit, wherein the control circuit is adapted to establish a potential difference between the two electrodes (30; 140) such that a direct current (55; 155) can flow between the two electrodes (30; 140), wherein the one electrode is a coil electrode, characterized in that the counter electrode is a surface electrode for application to the outside of the left ventricle.
Toothpaste comprising from 10 to 70% by weight of the composition of a calcium carbonate based abrasive system comprising from 45 to 60% by weight calcium carbonate, water and, water-solubilised zinc citrate, wherein the molar ratio between the zinc ions and citrate ligand is from 1:1.3 to 1:1.7.
A method of handling a multi-connection protocol communication between a client and a server traversing a multi-core system, the multi-connection protocol comprising a control connection and a data connection, the method comprising: a) receiving, by a first packet processing engine of a first core of a multi-core system, a port command via a control connection from a client to a server to establish a data connection with the server via a multi-connection protocol, the port command comprising an internet protocol address of the client and a port number of the client; b) determining, by the first packet processing engine based on the port command, a second core of the multi-core system to which a flow distributor will forward a data connection request from the server; c) sending, by the first core, to the second core a message comprising information on the port command; d) establishing, by a second packet processing engine of the second core, a listening service on a mapped internet protocol address of and a mapped port number of the multi-core system; e) sending, by the second core, to the first core a second message identifying the mapped internet protocol address and mapped port number; and f) modifying, by the first packet processing engine, the port command to identify the mapped internet protocol address of the multi-core system as the internet protocol address of the client and the mapped port number as the port number of the client. a) receiving, by a first packet processing engine of a first core of a multi-core system, a port command via a control connection from a client to a server to establish a data connection with the server via a multi-connection protocol, the port command comprising an internet protocol address of the client and a port number of the client; b) determining, by the first packet processing engine based on the port command, a second core of the multi-core system to which a flow distributor will forward a data connection request from the server; c) sending, by the first core, to the second core a message comprising information on the port command; d) establishing, by a second packet processing engine of the second core, a listening service on a mapped internet protocol address of and a mapped port number of the multi-core system; e) sending, by the second core, to the first core a second message identifying the mapped internet protocol address and mapped port number; and f) modifying, by the first packet processing engine, the port command to identify the mapped internet protocol address of the multi-core system as the internet protocol address of the client and the mapped port number as the port number of the client.
Multi-component, especially two-component, adhesive system for fixing purposes in the construction sector and as an adhesive in the DIY sector, having a component based on a distilled isocyanate prepolymer and, as hardener, a second component which contains organic compounds carrying functional groups in the form of amino groups, hydroxy groups and/or mercapto groups, in the form of a kit as a foil pouch having a plurality of chambers (P, I) in the form of two or more foil-enclosed chambers which are joined to one another and are provided with one or more partition walls between the chambers, which chambers in each case ensure that the components, which would otherwise react with one another on mixing, are stored separately so as to inhibit reaction, wherein the foil pouch forms the foil-enclosed chambers (P, I), wherein the isocyanate prepolymer has a residual content of monomeric isocyanates of less than 1 % by weight, a content of reactive isocyanate groups of from 3 to 25 % by weight, and a viscosity of the isocyanate prepolymer of 200 000 MPa*s or less, the viscosity being determined at 23°C with the aid of a Brookfield DV3T Extra Rheometer and spindle 7 at 10 rev/min.
Reactor for integral water treatment, that comprises: - an inlet nozzle; - a perimetral chamber having two volumes separated by a perforated surface: ∘ a first volume (2.1), for the distribution and injection of a pH-adjusting compound, comprising: an injector of the pH-adjusting compound; ∘ a second volume (2.2); - an outlet nozzle where the water is collected once it has been treated. characterized in that the second volume (2.2) comprising a filler to favor absorption of the pH-adjusting compound; and the reactor also comprises a central chamber inside the perimetral chamber communicated in its lower portion with the perimetral chamber through holes preventing the passage of the parts forming the filler. - an inlet nozzle; - a perimetral chamber having two volumes separated by a perforated surface: ∘ a first volume (2.1), for the distribution and injection of a pH-adjusting compound, comprising: an injector of the pH-adjusting compound; ∘ a second volume (2.2); ∘ a first volume (2.1), for the distribution and injection of a pH-adjusting compound, comprising: an injector of the pH-adjusting compound; ∘ a second volume (2.2); - an outlet nozzle where the water is collected once it has been treated. characterized in that the second volume (2.2) comprising a filler to favor absorption of the pH-adjusting compound; and the reactor also comprises a central chamber inside the perimetral chamber communicated in its lower portion with the perimetral chamber through holes preventing the passage of the parts forming the filler.