mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: determining, by a first local area network - LAN - controller, that a first device (101 1 -101N) has connected to a first wireless access point - AP (102 1), of a plurality of wireless APs (102 1 -102 N), using a predefined service set identifier - SSID; transmitting, by the first LAN controller an Extensible Authentication Protocol - EAP - request to the first device; receiving, by the first LAN controller from the first device, an EAP response specifying a destination address of a second LAN controller associated with a first private network; creating, by the first LAN controller based on the destination address, a Control and Provisioning of Wireless Access Points - CAPWAP - tunnel between the first wireless AP and the second LAN controller; and configuring, by the first LAN controller, the first wireless AP to broadcast a private SSID associated with the first private network, wherein the first device accesses the first private network via the CAPWAP tunnel by connecting to the first wireless AP using the private SSID. determining, by a first local area network - LAN - controller, that a first device (101 1 -101N) has connected to a first wireless access point - AP (102 1), of a plurality of wireless APs (102 1 -102 N), using a predefined service set identifier - SSID; transmitting, by the first LAN controller an Extensible Authentication Protocol - EAP - request to the first device; receiving, by the first LAN controller from the first device, an EAP response specifying a destination address of a second LAN controller associated with a first private network; creating, by the first LAN controller based on the destination address, a Control and Provisioning of Wireless Access Points - CAPWAP - tunnel between the first wireless AP and the second LAN controller; and configuring, by the first LAN controller, the first wireless AP to broadcast a private SSID associated with the first private network, wherein the first device accesses the first private network via the CAPWAP tunnel by connecting to the first wireless AP using the private SSID.
A method for generating channel state information at a user equipment, UE, for multiple input multiple output, MIMO, based beamforming in a wireless communication system, the method comprising: receiving a first pilot pattern corresponding to a vertical-direction channel and a second pilot pattern corresponding to a horizontal-direction channel from a base station; selecting a precoding matrix index, PMI, and a rank indicator, RI, for each of the first pilot pattern and the second pilot pattern; and configuring a larger one of the RI for the first pilot pattern and the RI for the second pilot pattern as an RI for a three-dimensional, 3D, channel, characterized by: reconfiguring the RI for the 3D channel as an RI for a pilot pattern having the smaller RI; and reselecting a PMI for the pilot pattern having the smaller RI using the reconfigured RI and the PMI for the pilot pattern having the larger RI. receiving a first pilot pattern corresponding to a vertical-direction channel and a second pilot pattern corresponding to a horizontal-direction channel from a base station; selecting a precoding matrix index, PMI, and a rank indicator, RI, for each of the first pilot pattern and the second pilot pattern; and configuring a larger one of the RI for the first pilot pattern and the RI for the second pilot pattern as an RI for a three-dimensional, 3D, channel, characterized by: reconfiguring the RI for the 3D channel as an RI for a pilot pattern having the smaller RI; and reselecting a PMI for the pilot pattern having the smaller RI using the reconfigured RI and the PMI for the pilot pattern having the larger RI. reconfiguring the RI for the 3D channel as an RI for a pilot pattern having the smaller RI; and reselecting a PMI for the pilot pattern having the smaller RI using the reconfigured RI and the PMI for the pilot pattern having the larger RI.
Method for manufacturing plant-based meat analogue products, said method comprising: a) preparing a batch of plant textured proteins by hydrating said plant textured proteins with an aqueous solution, optionally comprising at least one coloring and/or flavoring agent, under a low agitation inferior to 50 rpm, b) preparing a batch of texturing emulsion by b1) dispersing in oil a mixture comprising a texturing agent and at least one other binding agent, b2) mixing said dispersion with an aqueous solution under a low agitation inferior to 90 rpm, and b3) mixing the mixture obtained at step b2) under high shear conditions, thereby obtaining an emulsion, c) mixing said batches and under a low agitation inferior to 70 rpm, d) forming plant-based meat analogue products from the mixture obtained at step c). a) preparing a batch of plant textured proteins by hydrating said plant textured proteins with an aqueous solution, optionally comprising at least one coloring and/or flavoring agent, under a low agitation inferior to 50 rpm, b) preparing a batch of texturing emulsion by b1) dispersing in oil a mixture comprising a texturing agent and at least one other binding agent, b2) mixing said dispersion with an aqueous solution under a low agitation inferior to 90 rpm, and b3) mixing the mixture obtained at step b2) under high shear conditions, thereby obtaining an emulsion, b1) dispersing in oil a mixture comprising a texturing agent and at least one other binding agent, b2) mixing said dispersion with an aqueous solution under a low agitation inferior to 90 rpm, and b3) mixing the mixture obtained at step b2) under high shear conditions, thereby obtaining an emulsion, c) mixing said batches and under a low agitation inferior to 70 rpm, d) forming plant-based meat analogue products from the mixture obtained at step c).
A joining device, in particular for the contact-based joining of flexible materials, comprising a first tool half and at least one first thin film sensor, which is arranged on a surface of the first tool half and comprises at least one distance sensor and/or at least one temperature sensor and/or at least one moisture sensor and/or at least one pressure sensor including a piezoelectric element, wherein the at least one first thin film sensor is configured to detect, preferably continuously, at least one process parameter value of at least one process parameter during a joining process.
A screw compressor comprising: a casing; a screw rotor rotatable in the casing; a compression chamber defined between the casing and the screw rotor and configured to compress refrigerant gas; a slide groove disposed on an inner peripheral surface of the casing and extending along a direction of a rotational axis of the screw rotor; an economizer gas passage, connectable to an economizer, extending through the casing to communicate between an outside of the casing and the slide groove; a first slidable valve disposed in the slide groove to be slidable along the direction of the rotational axis of the screw rotor; an economizer port penetrating through the first slidable valve to communicate between the economizer gas passage and the compression chamber depending on a position of the first slidable valve, the screw compressor is characterised by the first slidable valve being configured to move between a first position and a second position, the first slidable valve at the first position allowing the economizer gas passage to communicate with the compression chamber, the first slidable valve at the second position preventing the economizer port from communicating with the compression chamber; and a second slidable valve disposed in the casing, the second slidable valve being slidable along the direction of the rotational axis of the screw rotor to adjust timing of discharge from the compression chamber. a casing; a screw rotor rotatable in the casing; a compression chamber defined between the casing and the screw rotor and configured to compress refrigerant gas; a slide groove disposed on an inner peripheral surface of the casing and extending along a direction of a rotational axis of the screw rotor; an economizer gas passage, connectable to an economizer, extending through the casing to communicate between an outside of the casing and the slide groove; a first slidable valve disposed in the slide groove to be slidable along the direction of the rotational axis of the screw rotor; an economizer port penetrating through the first slidable valve to communicate between the economizer gas passage and the compression chamber depending on a position of the first slidable valve, the screw compressor is characterised by the first slidable valve being configured to move between a first position and a second position, the first slidable valve at the first position allowing the economizer gas passage to communicate with the compression chamber, the first slidable valve at the second position preventing the economizer port from communicating with the compression chamber; and a second slidable valve disposed in the casing, the second slidable valve being slidable along the direction of the rotational axis of the screw rotor to adjust timing of discharge from the compression chamber.
A positive photosensitive composition, comprising: a compound that contains an alkenyl group or a SiH group within a molecule and has a structure that decomposes in the presence of acid to generate an acidic group or a hydroxyl group; wherein the structure that decomposes in the presence of acid to generate an acidic group or a hydroxyl group in the component is a phenol structure with protected hydroxyl functionality or a carboxylic acid structure with protected carboxyl functionality; a compound that contains a SiH group or an alkenyl group within a molecule; a hydrosilylation catalyst; and a photoacid generator; wherein if is an alkenyl group containing compound, is a SiH group containing compound, and if is a SiH group containing compound, is an alkenyl group containing compound. a compound that contains an alkenyl group or a SiH group within a molecule and has a structure that decomposes in the presence of acid to generate an acidic group or a hydroxyl group; wherein the structure that decomposes in the presence of acid to generate an acidic group or a hydroxyl group in the component is a phenol structure with protected hydroxyl functionality or a carboxylic acid structure with protected carboxyl functionality; a compound that contains a SiH group or an alkenyl group within a molecule; a hydrosilylation catalyst; and a photoacid generator;
A method comprising: receiving, by a processor, first scan data of an object within a space, wherein the first scan data comprises: (i) a first position of the object in the space (ii) a first two-dimensional mesh image defining a first view of a shape of the object at the first position, and (iii) non-rigid movement information defining a deformable surface area of the object, wherein the non-rigid movement information comprises coordinates in a coordinate system that define a location of the deformable surface area on the object and are relative to the first position of the object in the space; receiving second scan data (314, 316, 318) of the object that comprises: (i) movement information defining a movement of the object from the first position to a second position within the space (ii) a second two-dimensional mesh image defining a second view of the shape of the object at the second position, and (iii) a deformation matrix that defines a deformation of the deformable surface area of the object at the second position within the space, wherein the deformable surface area is deformable independent of the movement of the object; and aligning the first scan data and the second scan data so as to generate a three-dimensional object data model of the object based on (i) the first two-dimensional mesh image that defines the first view of the shape of the object at the first position, (ii) the movement information, (iii) the second two-dimensional mesh image that defines the second view of the shape of the object at the second position, and (iv) using the deformation matrix. receiving, by a processor, first scan data of an object within a space, wherein the first scan data comprises: (i) a first position of the object in the space (ii) a first two-dimensional mesh image defining a first view of a shape of the object at the first position, and (iii) non-rigid movement information defining a deformable surface area of the object, wherein the non-rigid movement information comprises coordinates in a coordinate system that define a location of the deformable surface area on the object and are relative to the first position of the object in the space; receiving second scan data (314, 316, 318) of the object that comprises: (i) movement information defining a movement of the object from the first position to a second position within the space (ii) a second two-dimensional mesh image defining a second view of the shape of the object at the second position, and (iii) a deformation matrix that defines a deformation of the deformable surface area of the object at the second position within the space, wherein the deformable surface area is deformable independent of the movement of the object; and aligning the first scan data and the second scan data so as to generate a three-dimensional object data model of the object based on (i) the first two-dimensional mesh image that defines the first view of the shape of the object at the first position, (ii) the movement information, (iii) the second two-dimensional mesh image that defines the second view of the shape of the object at the second position, and (iv) using the deformation matrix.
An optical engine for use in a bench top flow cytometer, the optical engine comprising: a) a set of lasers, each tuned to a wavelength suited for excitation of fluorescent molecules; b) a different set of beam shaping optics for each laser, wherein each set comprises two lenses (112v, 112b, 112r; 114v, 114b, 114r) to adjustably focus a beam horizontally along an x-axis to a same horizontal position and vertically along a y-axis to a different vertical position (Vv, Vb, Vr) along a same plane, wherein the plane is characterized as a flow path (P1, P2, P3) through a flow cell of the flow cytometer; c) collection optics for collecting fluorescence from the flow cell; d) filtration optics that filter the collected fluorescence from the flow cell into different filter channels according to wavelength ranges, wherein the collected fluorescence from the different vertical positions is filtered at different spatial positions on a same filter; and e) a single detector for each filter channel that converts the filtered fluorescence to electrical signals, wherein electrical signals are processed so that the fluorescence from the different vertical positions is distinguished at the single detector by a time delay. a) a set of lasers, each tuned to a wavelength suited for excitation of fluorescent molecules; b) a different set of beam shaping optics for each laser, wherein each set comprises two lenses (112v, 112b, 112r; 114v, 114b, 114r) to adjustably focus a beam horizontally along an x-axis to a same horizontal position and vertically along a y-axis to a different vertical position (Vv, Vb, Vr) along a same plane, wherein the plane is characterized as a flow path (P1, P2, P3) through a flow cell of the flow cytometer; c) collection optics for collecting fluorescence from the flow cell; d) filtration optics that filter the collected fluorescence from the flow cell into different filter channels according to wavelength ranges, wherein the collected fluorescence from the different vertical positions is filtered at different spatial positions on a same filter; and e) a single detector for each filter channel that converts the filtered fluorescence to electrical signals, wherein electrical signals are processed so that the fluorescence from the different vertical positions is distinguished at the single detector by a time delay.
A device, wherein the device has - a cover part, - a winding support, - a winding arrangement, - a ferrite layer, - a support and - a base part, wherein the winding arrangement is received in the winding support, wherein the winding support is arranged between the cover part and the ferrite layer, which has cutouts, wherein the ferrite layer is arranged on a support which is arranged on a base part, wherein supporting domes are formed on the base part, which domes protrude through the cutouts in the ferrite layer and bear the winding support and/or the cover part. - a cover part, - a winding support, - a winding arrangement, - a ferrite layer, - a support and - a base part,
A strut structure for a gas turbine, the strut structure being formed in an annular exhaust passage formed between an inner casing (1100, 3100) and an outer casing (1200, 3200) of the gas turbine, the strut structure comprising: a strut housing (1300, 2300, 3300) including a lower end connected to the inner casing (1100, 3100) and an upper end connected to the outer casing (1200, 3200); and a strut groove (1400, 2400, 3400); characterized in that the strut groove (1400, 2400, 3400) connects a front end (1301, 2301) and a rear end (1302, 2302) of the strut housing (1300, 2300, 3300) thereof; and wherein the strut groove is formed on at least one end of the upper end and the lower end of the strut housing (1300, 2300, 3300); or wherein a lower inner fillet (1410, 2410) is formed on an upper surface of the inner casing (1100, 3100), and an upper inner fillet (1420, 2420) is formed on a lower surface of the outer casing (1200, 3200), and the upper inner fillet (1420, 2420) and the lower inner fillet (1410, 2410) are partially inserted into the strut housing (1300, 2300, 3300), and a portion not inserted into the strut housing (1300, 2300, 3300) forms the strut groove (1400, 2400, 3400). a strut housing (1300, 2300, 3300) including a lower end connected to the inner casing (1100, 3100) and an upper end connected to the outer casing (1200, 3200); and a strut groove (1400, 2400, 3400); characterized in that the strut groove (1400, 2400, 3400) connects a front end (1301, 2301) and a rear end (1302, 2302) of the strut housing (1300, 2300, 3300) thereof; and wherein the strut groove is formed on at least one end of the upper end and the lower end of the strut housing (1300, 2300, 3300); or wherein a lower inner fillet (1410, 2410) is formed on an upper surface of the inner casing (1100, 3100), and an upper inner fillet (1420, 2420) is formed on a lower surface of the outer casing (1200, 3200), and the upper inner fillet (1420, 2420) and the lower inner fillet (1410, 2410) are partially inserted into the strut housing (1300, 2300, 3300), and a portion not inserted into the strut housing (1300, 2300, 3300) forms the strut groove (1400, 2400, 3400).
A system for multi-modality breast imaging, comprising: - a first shape model constructing sub-system for constructing a first shape model of the breast as represented in a first image of a first modality, in which the breast has a first deformation state; - a second shape model constructing sub-system for constructing a second shape model of the breast as represented in a second image of a second modality, in which the breast is compressed such that the breast has a second deformation state different from the first deformation state; and - a deformation estimating sub-system for estimating a volumetric deformation field defining a mapping between the first image and the second image on the basis of the shape models and an elastic deformation model of the breast, wherein the deformation estimating sub-system further comprises a landmark identifying sub-system for identifying a lymph node or at least part of a milk duct as a landmark in the first image and in the second image. - a first shape model constructing sub-system for constructing a first shape model of the breast as represented in a first image of a first modality, in which the breast has a first deformation state; - a second shape model constructing sub-system for constructing a second shape model of the breast as represented in a second image of a second modality, in which the breast is compressed such that the breast has a second deformation state different from the first deformation state; and - a deformation estimating sub-system for estimating a volumetric deformation field defining a mapping between the first image and the second image on the basis of the shape models and an elastic deformation model of the breast,
A robotic arm configuration for chemical mechanical polishing of a work piece, the robotic arm configuration comprising: a robotic arm having serial kinematics configuration with 6 degrees of freedom; a force-torque sensor operably coupled to a distal end of the robotic arm; a slurry of an oxidizing agent and an abrasive agent; a pad retainer operably coupled to a distal end of the force-torque sensor, the pad retainer including a slurry channel for providing the slurry of an oxidizing agent and an abrasive agent; and a rotatable pad for CMP operably coupled to the pad retainer, wherein the force-torque sensor is configured to measure force between the work piece and the pad, and further wherein the robotic arm, the pad, and the slurry are configured to provide both CMP and a nano-scale oxide layer on a surface of the work piece. a robotic arm having serial kinematics configuration with 6 degrees of freedom; a force-torque sensor operably coupled to a distal end of the robotic arm; a slurry of an oxidizing agent and an abrasive agent; a pad retainer operably coupled to a distal end of the force-torque sensor, the pad retainer including a slurry channel for providing the slurry of an oxidizing agent and an abrasive agent; and a rotatable pad for CMP operably coupled to the pad retainer, wherein the force-torque sensor is configured to measure force between the work piece and the pad, and further wherein the robotic arm, the pad, and the slurry are configured to provide both CMP and a nano-scale oxide layer on a surface of the work piece.
A compound which is a modulator of tissue transglutaminase for use in the treatment of endothelial dysfunction, wherein the modulator of tissue transglutaminase is a compound of formula: wherein - Z is selected from the group consisting of S, SO 2, and Se, - Ar 1 and Ar 2 are independently selected from the group consisting of optionally substituted phenyl and optionally substituted heteroaryl, - R is selected from the group consisting of hydrogen, deuterium, halogen, and C 1 -C 3 alkyl, - X is selected from the group consisting of O, NH, N(Me), and S, n is an integer selected from the group consisting of 1, 2 and 3. - Z is selected from the group consisting of S, SO 2, and Se, - Ar 1 and Ar 2 are independently selected from the group consisting of optionally substituted phenyl and optionally substituted heteroaryl, - R is selected from the group consisting of hydrogen, deuterium, halogen, and C 1 -C 3 alkyl, - X is selected from the group consisting of O, NH, N(Me), and S,