mhurhangee/patent-ind-claim-en huggingface dataset:
A device for producing foamed plastics parts, in particular sealing beads, comprising - a container or a feed pump for a liquid plastics component, - a gas source , - at least one mixing device , - an introducing device , connected to the mixing device via a first line , for the at least one gas, the introducing device being designed as a first piston pump having a piston , - a feed device , connected to the mixing device via a second line , for the at least one liquid plastics component, the feed device being designed as a second piston pump having a piston , - an intermittently operating transmission device which is formed by the piston pumps , - a source for the at least one liquid plastics component mixed with gas, said source being formed by a line leading away from the mixing device , and - a dispensing device , it being possible for the at least one liquid plastics component, mixed with gas, of the dispensing device to be intermittently provided by the intermittently operating transmission device via the source , characterized in that a buffer device is arranged between the source for the at least one liquid plastics component mixed with gas and the dispensing device , which buffer device is connected to the source via an inlet opening and to the dispensing device via an outlet opening and has a variable buffer volume . - a container or a feed pump for a liquid plastics component, - a gas source , - at least one mixing device , - an introducing device , connected to the mixing device via a first line , for the at least one gas, the introducing device being designed as a first piston pump having a piston , - a feed device , connected to the mixing device via a second line , for the at least one liquid plastics component, the feed device being designed as a second piston pump having a piston , - an intermittently operating transmission device which is formed by the piston pumps , - a source for the at least one liquid plastics component mixed with gas, said source being formed by a line leading away from the mixing device , and - a dispensing device , it being possible for the at least one liquid plastics component, mixed with gas, of the dispensing device to be intermittently provided by the intermittently operating transmission device via the source , characterized in that a buffer device is arranged between the source for the at least one liquid plastics component mixed with gas and the dispensing device , which buffer device is connected to the source via an inlet opening and to the dispensing device via an outlet opening and has a variable buffer volume .
Packaging material for packaging a device , in particular a microfluidic device , wherein the packaging material comprises a desiccant container , in particular a desiccant pouch , wherein the desiccant container is fixed by way of locally melting the packaging material , characterized in that a sleeve of the desiccant container comprises fibres or a fibrous material.
A process for making a compound of Formula ( I ): wherein: R 1 and R 2 are each, independently in each instance, selected from alkyl and alkyl substituted with alkoxycarbonyl; the stereochemical configuration about the carbon atom indicated by 2 is R; the stereochemical configuration about carbon atom indicated by 3' is R; X - is an anion; wherein the process comprises: contacting compound with pivaldehyde to form compound : contacting compound with LiHMDS and cyclopentyl bromide to form compound : contacting compound : with methanolic potassium hydroxide; and contacting a compound of Formula ( Ia ) with a compound of Formula ( Ib ) under coupling conditions to form a compound of Formula ( Ic ): wherein the compound of Formula ( Ia ) is compound : and contacting a compound of Formula ( Ic ) with a compound of Formula (Id) to make a compound of Formula ( I ): R 1 and R 2 are each, independently in each instance, selected from alkyl and alkyl substituted with alkoxycarbonyl; the stereochemical configuration about the carbon atom indicated by 2 is R; the stereochemical configuration about carbon atom indicated by 3' is R; X - is an anion; wherein the process comprises: contacting compound with pivaldehyde to form compound : contacting compound with LiHMDS and cyclopentyl bromide to form compound : contacting compound : with methanolic potassium hydroxide; and contacting a compound of Formula ( Ia ) with a compound of Formula ( Ib ) under coupling conditions to form a compound of Formula ( Ic ): wherein the compound of Formula ( Ia ) is compound : and contacting a compound of Formula ( Ic ) with a compound of Formula (Id) to make a compound of Formula ( I ): contacting compound with pivaldehyde to form compound : contacting compound with LiHMDS and cyclopentyl bromide to form compound : contacting compound : with methanolic potassium hydroxide; and contacting a compound of Formula ( Ia ) with a compound of Formula ( Ib ) under coupling conditions to form a compound of Formula ( Ic ): wherein the compound of Formula ( Ia ) is compound : and contacting a compound of Formula ( Ic ) with a compound of Formula (Id) to make a compound of Formula ( I ):
Tetrahydro- β -carboline alkaloid derivatives with a structure shown in the following general formula (Id) (a) wherein R 6 represents hydrogen, hydroxy, amino or C1-C6 alkoxy; or (b) R 6 represents phenyl, benzo[ d ] thiadiazol-7-yl, 4-methyl-1,2,3-thiadiazol-5-yl, 4-pyridyl, n-pentyl, tert-butyl or cyclopentyl, wherein the core structure of general formula (Id) has a (1 S , 3 S )-geometry. (a) wherein R 6 represents hydrogen, hydroxy, amino or C1-C6 alkoxy; or (b) R 6 represents phenyl, benzo[ d ] thiadiazol-7-yl, 4-methyl-1,2,3-thiadiazol-5-yl, 4-pyridyl, n-pentyl, tert-butyl or cyclopentyl, wherein the core structure of general formula (Id) has a (1 S , 3 S )-geometry.
Ball bearing having a ball-bearing inner ring , having a ball-bearing outer ring , having a ball-bearing cage , which has a radially encircling annular body on which there are arranged webs distributed substantially uniformly in a circumferential direction and projecting axially with a predefinable axial length and forming a plurality of ball pockets , said ball pockets being open in an axial direction on one side and serving for receiving a corresponding number of balls with a predefinable ball diameter , wherein, at least at one web , a guide portion is configured for being brought into engagement with a running groove of a ball-bearing ring , wherein the guide portion is in engagement with a running groove of the ball-bearing inner ring or with a running groove of the ball-bearing outer ring , and having a multiplicity of the balls with the predefinable ball diameter , the number of which corresponds to the number of ball pockets formed by the ball-bearing cage , wherein in each case one of the balls is received in one of the ball pockets , wherein the axial length of the webs corresponds at least to the ball diameter , and wherein the respective web has a protrusion with which the respective web projects axially beyond a ball , characterized in that the axial protrusion is dimensioned in such a way that the respective web is shoulder-guided on a first, axially close shoulder and a second, axially remote shoulder of a ball-bearing ring .
A method of measuring an object , the method comprising: registering the object with a nominal model, in particular comprising a 3D CAD model, of the object, the object having a plurality of features; determining at least one feature of the object to scan; calculating an efficient trajectory for an X-ray scanning device to scan the at least one feature of the object, calculating being a function of registering the object with the model; controlling the X-ray scanning device to scan _by moving or orbiting a source/ detector pair around the object along an arc (θ), less than the entire object along the efficient trajectory to produce visual data representing at least one scanned portion, the at least one scanned portion including at least a portion of the at least one feature; volumetrically reconstructing the at least one scanned portion of the registered object from the visual data, reconstructing producing a volumetric reconstruction; and measuring the at least one feature from the volumetric reconstruction, in particular comprising loading the object into a CT machine comprising the X-ray scanning device. registering the object with a nominal model, in particular comprising a 3D CAD model, of the object, the object having a plurality of features; determining at least one feature of the object to scan; calculating an efficient trajectory for an X-ray scanning device to scan the at least one feature of the object, calculating being a function of registering the object with the model; controlling the X-ray scanning device to scan _by moving or orbiting a source/ detector pair around the object along an arc (θ), less than the entire object along the efficient trajectory to produce visual data representing at least one scanned portion, the at least one scanned portion including at least a portion of the at least one feature; volumetrically reconstructing the at least one scanned portion of the registered object from the visual data, reconstructing producing a volumetric reconstruction; and measuring the at least one feature from the volumetric reconstruction, in particular comprising loading the object into a CT machine comprising the X-ray scanning device.
A method of performing ranging, which is performed by a user equipment, UE, in a wireless communication system, comprising the steps of: transmitting a device-to-device, D2D, discovery signal in a subframe N by a first UE; receiving a D2D signal in a subframe N+K from a second UE; and measuring a round trip time, RTT, by the first UE, by detecting the timing at which the D2D signal transmitted by the second UE is received, characterized in that : the subframe N+K in which the D2D signal is received has a subframe boundary configured based on a reception timing at the second UE of the D2D discovery signal. transmitting a device-to-device, D2D, discovery signal in a subframe N by a first UE; receiving a D2D signal in a subframe N+K from a second UE; and measuring a round trip time, RTT, by the first UE, by detecting the timing at which the D2D signal transmitted by the second UE is received, characterized in that : the subframe N+K in which the D2D signal is received has a subframe boundary configured based on a reception timing at the second UE of the D2D discovery signal.
Thermally conductive, plate-like support which can be connected to the housing or base of a thermal switching device that can be brought into thermal contact with a heating device of an object of use, wherein the support has four corner regions and can be connected by means of laser welding to the heating device that is in thermal contact of the object of use, wherein the support has a fixing arm in each corner region of the support , which is configured to act on a recess on the outer side of the housing in order to hold the two parts in position with each other, and the support is flat on its underside and has a region specifically prepared to couple in a laser beam , in such a way that the region comprises a contouring in the form of an edge bevel that tapers the cross section towards the underside of the support . the support has four corner regions and can be connected by means of laser welding to the heating device that is in thermal contact of the object of use, wherein the support has a fixing arm in each corner region of the support , which is configured to act on a recess on the outer side of the housing in order to hold the two parts in position with each other, and the support is flat on its underside and has a region specifically prepared to couple in a laser beam , in such a way that the region comprises a contouring in the form of an edge bevel that tapers the cross section towards the underside of the support .
A multi-camera zooming method, applied to a mobile terminal, the mobile terminal including n cameras and an image processor connected with the n cameras, and the image processor simultaneously supporting m cameras in an operating state, where n>m≥2, characterized by the method including: during zooming from an ith magnification range to an adjacent jth magnification range, selecting a jth camera corresponding to the jth magnification range from the n cameras, where 1≤i≤n and 1≤j≤n, wherein preview images are acquired by an ith camera corresponding to the ith magnification range before zooming from the ith magnification range to the adjacent jth magnification range; if the jth camera is in a non-operating state, determining a transition camera and a target camera from the m cameras in the operating state, wherein the transition camera and the target camera are two different cameras; setting the transition camera as a camera configured to acquire preview images; unloading the target camera from the operating state to the non-operating state and loading the jth camera from the non-operating state to the operating state; and switching the camera configured to acquire the preview images from the transition camera to the jth camera. during zooming from an ith magnification range to an adjacent jth magnification range, selecting a jth camera corresponding to the jth magnification range from the n cameras, where 1≤i≤n and 1≤j≤n, wherein preview images are acquired by an ith camera corresponding to the ith magnification range before zooming from the ith magnification range to the adjacent jth magnification range; if the jth camera is in a non-operating state, determining a transition camera and a target camera from the m cameras in the operating state, wherein the transition camera and the target camera are two different cameras; setting the transition camera as a camera configured to acquire preview images; unloading the target camera from the operating state to the non-operating state and loading the jth camera from the non-operating state to the operating state; and switching the camera configured to acquire the preview images from the transition camera to the jth camera.
A composite electric wire structure comprising: a metal wire; and a carbon material island structure present on a surface of the metal wire, wherein the carbon material island structure comprises carbon material flakes dispersed and isolated on the surface of the metal wire, wherein the composite electric wire structure further comprises a sheath covering the metal wire and the carbon material island structure, and the sheath contacts with the metal wire at a portion where the carbon material island structure is not present and contacts with a carbon material at a portion where the carbon material island structure is present, and wherein the sheath is an insulating sheath or a conductor shield sheath. a metal wire; and a carbon material island structure present on a surface of the metal wire, wherein the carbon material island structure comprises carbon material flakes dispersed and isolated on the surface of the metal wire, wherein the composite electric wire structure further comprises a sheath covering the metal wire and the carbon material island structure, and the sheath contacts with the metal wire at a portion where the carbon material island structure is not present and contacts with a carbon material at a portion where the carbon material island structure is present, and wherein the sheath is an insulating sheath or a conductor shield sheath.
A non-aqueous ophthalmic composition comprising dry solid particles of a protein powder preparation suspended in a liquid vehicle comprising a semifluorinated alkane, wherein the particles of the protein powder preparation comprise an anti-VEGF protein selected from aflibercept or a sequence having 100% sequence identity to SEQ ID NO: 1.
An autodepositing liquid bath composition comprising water and: (A) dispersed or both dispersed and dissolved film forming polymer present in a concentration of at least 1.0% of the composition selected from an epoxy polymer or an epoxy pre-polymer and polymerized ethylenically unsaturated monomers; (B) a surfactant component present in sufficient quantity to emulsify component (A); (C) a curing component comprising at least one latent cross-linking agent chemically reactive with constituents of component (A) at temperatures of 140° C or less and stable at pH ranges of 1.5 to about 6 selected from blocked isocyanates blocked with pyrazoles; and (D) a dissolved accelerator component; wherein the autodepositing liquid bath composition is capable of depositing on an active metal surface and curing upon heating by cross-linking at temperatures of 140° C or less. (A) dispersed or both dispersed and dissolved film forming polymer present in a concentration of at least 1.0% of the composition selected from an epoxy polymer or an epoxy pre-polymer and polymerized ethylenically unsaturated monomers; (B) a surfactant component present in sufficient quantity to emulsify component (A); (C) a curing component comprising at least one latent cross-linking agent chemically reactive with constituents of component (A) at temperatures of 140° C or less and stable at pH ranges of 1.5 to about 6 selected from blocked isocyanates blocked with pyrazoles; and (D) a dissolved accelerator component;
Vortex tube separator with an internal radius ra, wherein the vortex tube separator has an inlet opening , which has an inlet width b, where b = S b * r a , wherein S b amounts to at least 0.41 and at most 0.6; wherein the vortex tube separator further comprises an immersion tube , which has an internal radius r i and a height h i and where hi = S hi * r i , characterised in that S hi amounts to at least 0.8 and at most 1.2.
Fluid sampling apparatus comprising: an elongate tube ; and a fluid partitioning unit comprising: a first port arranged to receive an incoming flow of test fluid, wherein the test fluid is a bodily fluid; and a second port arranged to be coupled to the elongate tube, wherein the fluid partitioning unit defines a fluid passage between the first port and the second port ; a partitioning element insertion unit coupled to the fluid passage via a third port located between the first port and second port , wherein the fluid partitioning unit is arranged to combine the flow of test fluid with a plurality of partitioning elements to define a plurality of discrete temporally organised fluid samples (FS) for movement along and storage in the elongate tube and is arranged to introduce the partitioning elements in succession into the flow of test fluid, and wherein the apparatus further comprises a control pump arranged to force the plurality of discrete fluid samples (FS) towards the elongate tube characterised by : a pressure sensor arranged to measure fluid pressure within the first port and a control circuit arranged to monitor the pressure difference between the fluid within the first port and a reference pressure and generate a control signal operable to modify the operation of the control pump to ensure that the fluid pressure at the first port is substantially constant. an elongate tube ; and a fluid partitioning unit comprising: a first port arranged to receive an incoming flow of test fluid, wherein the test fluid is a bodily fluid; and a second port arranged to be coupled to the elongate tube, wherein the fluid partitioning unit defines a fluid passage between the first port and the second port ; a partitioning element insertion unit coupled to the fluid passage via a third port located between the first port and second port , a first port arranged to receive an incoming flow of test fluid, wherein the test fluid is a bodily fluid; and a second port arranged to be coupled to the elongate tube, wherein the fluid partitioning unit defines a fluid passage between the first port and the second port ; a partitioning element insertion unit coupled to the fluid passage via a third port located between the first port and second port , wherein the fluid partitioning unit is arranged to combine the flow of test fluid with a plurality of partitioning elements to define a plurality of discrete temporally organised fluid samples (FS) for movement along and storage in the elongate tube and is arranged to introduce the partitioning elements in succession into the flow of test fluid, and wherein the apparatus further comprises a control pump arranged to force the plurality of discrete fluid samples (FS) towards the elongate tube characterised by : a pressure sensor arranged to measure fluid pressure within the first port and a control circuit arranged to monitor the pressure difference between the fluid within the first port and a reference pressure and generate a control signal operable to modify the operation of the control pump to ensure that the fluid pressure at the first port is substantially constant.
A method performed at a network switch of a fabric network , the method comprising: detecting a connection of a device to the network switch , the device compliant with a remote integrated services engine (RISE) protocol; receiving, from the device , a programming instruction for switching compliant with the RISE protocol; distributing the programming instruction to one or more other network switches of the fabric network ; receiving data and control traffic from the one or more other network switches of the fabric network ; and forwarding the received data and control traffic to the device . detecting a connection of a device to the network switch , the device compliant with a remote integrated services engine (RISE) protocol; receiving, from the device , a programming instruction for switching compliant with the RISE protocol; distributing the programming instruction to one or more other network switches of the fabric network ; receiving data and control traffic from the one or more other network switches of the fabric network ; and forwarding the received data and control traffic to the device .
Use of a cosmetic composition for protecting the skin from heavy metals and formaldehyde, comprising at least one selected from the group consisting of trientine or trientine derivative of Formula , cyclen or cyclen derivative of Formula , cyclam or cyclam derivative of Formula , and a salt thereof. wherein: R 1 , R 2 , R 3 , R 4 , R 5 and R 6 is each independently hydrogen, -R 7 -COOH; R 7 is a C 1 -C 5 alkyl group, an unsubstituted or substituted aromatic hydrocarbon group, or an unsubstituted or substituted aromatic heterocyclic group. wherein: R 1 , R 2 , R 3 , R 4 , R 5 and R 6 is each independently hydrogen, -R 7 -COOH; R 7 is a C 1 -C 5 alkyl group, an unsubstituted or substituted aromatic hydrocarbon group, or an unsubstituted or substituted aromatic heterocyclic group.