mhurhangee/ep-ind-claims huggingface dataset:
A method performed by an electronic device, the method comprising: sending, to a first server, a request for resource information of a web content; receiving a resource information list of the web content from the first server, wherein the resource information list comprises at least one piece of information on whether there is a cacheable resource from among the resources of the web content; determining an uncacheable resource based on the resource information list; requesting and receiving the uncacheable resource from a second server; identifying a cacheable resource from among the resources included in the web content based on the received resource information list; calculating, for the cacheable resource, a first estimated download time through the first server and a second estimated download time through the second server when the cacheable resource is downloaded from the first server and the second server respectively; determining, among the first server and the second server, a server that has a shorter estimated download time by comparing the first estimated download time and the second estimated download time; requesting and receiving the cacheable resource from the server that has the shorter estimated download time; and completing loading of the web content based on the received uncacheable resource and the received cacheable resource. sending, to a first server, a request for resource information of a web content; receiving a resource information list of the web content from the first server, wherein the resource information list comprises at least one piece of information on whether there is a cacheable resource from among the resources of the web content; determining an uncacheable resource based on the resource information list; requesting and receiving the uncacheable resource from a second server; identifying a cacheable resource from among the resources included in the web content based on the received resource information list; calculating, for the cacheable resource, a first estimated download time through the first server and a second estimated download time through the second server when the cacheable resource is downloaded from the first server and the second server respectively; determining, among the first server and the second server, a server that has a shorter estimated download time by comparing the first estimated download time and the second estimated download time; requesting and receiving the cacheable resource from the server that has the shorter estimated download time; and completing loading of the web content based on the received uncacheable resource and the received cacheable resource.
A method for mobile communications, the method comprising: receiving from a mobile device a request to add a second TP interface type to a current communication session associated with a first IP interface type, wherein the second IP interface type is different from the first IP interface type; requesting from the home network of the mobile device a set of IP addresses of the second IP interface type; receiving from the home network a set of IP addresses of the second IP interface type; establishing for the mobile device one or more IP flows of the second IP interface type using one or more received IP addresses; and associating the one or more IP flows of the second IP interface type with the current communication session for the mobile device, wherein associating the one or more IP flows of the second IP interface type with the current communication session includes associating the one or more IP flows with a existing Proxy Mobile Internet Protocol "PMIP" tunnel associated with the first IP interface type for the current communication session, or includes creating a new PMIP tunnel for the second IP interface type and associating the IP flow for the current communication session with the new PMIP tunnel. receiving from a mobile device a request to add a second TP interface type to a current communication session associated with a first IP interface type, wherein the second IP interface type is different from the first IP interface type; requesting from the home network of the mobile device a set of IP addresses of the second IP interface type; receiving from the home network a set of IP addresses of the second IP interface type; establishing for the mobile device one or more IP flows of the second IP interface type using one or more received IP addresses; and associating the one or more IP flows of the second IP interface type with the current communication session for the mobile device, wherein associating the one or more IP flows of the second IP interface type with the current communication session includes associating the one or more IP flows with a existing Proxy Mobile Internet Protocol "PMIP" tunnel associated with the first IP interface type for the current communication session, or includes creating a new PMIP tunnel for the second IP interface type and associating the IP flow for the current communication session with the new PMIP tunnel.
A vertical support for mounting an attachment member with a powered appliance onto a shelving system, the vertical support comprising an external casing aligned vertically in use with the shelving system having a longitudinal hollow interior with a space for receiving a power delivery insert; the ladder insert is placed in the ladder insert space so that the plurality of perforations provide openings that face both the longitudinal aperture and the power delivery insert space; and wherein the power delivery insert is removable from the vertical support and comprises a channel for receiving an attachment element of the attachment member provided with a power clip for providing power to the powered appliance, the horizontal width of the channel being at least as wide as the horizontal width of the perforations of the ladder insert; a first power transmitter on one interior side of the channel; and a second power transmitter on a different interior side of the channel; wherein the channel faces the plurality of perforations of the ladder insert; and,when mounted, the attachment element engages at least one perforation and the first and second power transmitters engage the power clip of the attachment member, in the channel, to make power available to the powered appliance, characterised in that the external casing has a longitudinal aperture with edges that taper inward leading to the longitudinal hollow interior, which is provided with a further space for receiving a ladder insert; and in that the ladder insert has a plurality of spaced-apart perforations, the horizontal width of the perforations being greater than the width of the longitudinal aperture.
Mobile warehousing apparatus for storing and retrieving goods in a high-bay warehouse, wherein the warehousing apparatus has one or more electrically operated components (308, 314) to which electrical energy is supplied by a power supply device of the warehousing apparatus, wherein the power supply device has at least two different electrical energy sources, independent of one another, in the form of at least a first energy source and a second energy source, wherein the first energy source is a chargeable electrical energy storage device, carried along with the warehousing apparatus, and the second energy source is a connecting device for connecting the warehousing apparatus, at least for a time, to an external electrical energy supply device, in order to feed electrical energy to the warehousing apparatus from the external electrical energy supply device, characterized in that the warehousing apparatus has an energy supply management, which is designed to supply electrically operated components (308, 314) of the warehousing apparatus with electrical energy completely or predominantly from either the first energy source or the second energy source, dependent on at least one operating state of the warehousing apparatus, wherein the at least one operating state of the warehousing apparatus is or comprises at least a direction of movement of the warehousing apparatus when it is moving along.
Coating material composition comprising at least one component A and one component B, with the component A having 40 to 70 wt.-% of one or more polyols (a), 2 to 10 wt.-% of one or more OH-functional unsaturated aliphatic urethane acrylates (b), 0.2 to 5 wt.-% of one or more photoinitiators (c) as well as a combination of tertiary amines with CH groups in alpha position as amine synergists having 1 to 10 wt.-% of one or more acryloyl-functional amine synergists with amine numbers in the range of 130 to 190 mg/g and 1 to 10 wt.-% of one or more acryloyl-functional amine synergists with amine numbers in the range of 60 to 105 mg/g, each based on the total weight of component A, and with component B having one or more aliphatic polyisocyanates (e). 40 to 70 wt.-% of one or more polyols (a), 2 to 10 wt.-% of one or more OH-functional unsaturated aliphatic urethane acrylates (b), 0.2 to 5 wt.-% of one or more photoinitiators (c) as well as a combination of tertiary amines with CH groups in alpha position as amine synergists having 1 to 10 wt.-% of one or more acryloyl-functional amine synergists with amine numbers in the range of 130 to 190 mg/g and 1 to 10 wt.-% of one or more acryloyl-functional amine synergists with amine numbers in the range of 60 to 105 mg/g, each based on the total weight of component A, 1 to 10 wt.-% of one or more acryloyl-functional amine synergists with amine numbers in the range of 130 to 190 mg/g and 1 to 10 wt.-% of one or more acryloyl-functional amine synergists with amine numbers in the range of 60 to 105 mg/g, each based on the total weight of component A, and with component B having one or more aliphatic polyisocyanates (e).
Emergency start-up device for a turboshaft engine of a helicopter comprising: - a hydraulic motor which is suitable for being mechanically connected to said turboshaft engine and is suitable for setting into rotation said engine to facilitate the start-up thereof, - a hydropneumatic store which is connected to said hydraulic motor by means of a hydraulic circuit for supplying pressurised liquid to said hydraulic motor, characterised in that the device comprises: - a hydraulic valve which has controlled quick opening, is arranged on the hydraulic circuit between said store and said hydraulic motor, and is suitable for being placed on command at least in an open position in which the liquid can supply said hydraulic motor, thus facilitating a start-up of said turboshaft engine when the device is used with said turboshaft engine, or in a closed position in which said hydraulic motor is no longer supplied with pressurised liquid, - a reservoir for recovering liquid which is connected to said hydraulic motor by means of a purge valve. - a hydraulic motor which is suitable for being mechanically connected to said turboshaft engine and is suitable for setting into rotation said engine to facilitate the start-up thereof, - a hydropneumatic store which is connected to said hydraulic motor by means of a hydraulic circuit for supplying pressurised liquid to said hydraulic motor, - a hydraulic valve which has controlled quick opening, is arranged on the hydraulic circuit between said store and said hydraulic motor, and is suitable for being placed on command at least in an open position in which the liquid can supply said hydraulic motor, thus facilitating a start-up of said turboshaft engine when the device is used with said turboshaft engine, or in a closed position in which said hydraulic motor is no longer supplied with pressurised liquid, - a reservoir for recovering liquid which is connected to said hydraulic motor by means of a purge valve.
Method for magnetic resonance measurement, comprising acquisition of signals resulting from a diffusion encoding scheme comprising a radio frequency and gradient sequence causing an isotropic diffusion weighting of an attenuation of the acquired signals, wherein the isotropic diffusion weighting is proportional to the trace of a diffusion tensor D, and wherein the isotropic diffusion weighting is achieved by one time-dependent dephasing vector q ( t) having an orientation, wherein the orientation of the time-dependent dephasing vector q ( t) is changed continuously during the gradient pulse sequence, 0 ≤ t ≤ t E, where t represents the time and t E represents the echo time, and characterized in that the isotropic diffusion weighting is achieved by a continuous sweep of the time-dependent dephasing vector q ( t) where each one of the azimuth angle ψ ( t) in a spherical coordinate system and the magnitude thereof is a continuous function of time so that the time-dependent dephasing vector q ( t) spans an entire range of orientations parallel to a right circular conical surface and so that the orientation of the time-dependent dephasing vector q ( t) at time 0 is identical to the orientation at time t E. wherein the isotropic diffusion weighting is proportional to the trace of a diffusion tensor D, and wherein the isotropic diffusion weighting is achieved by one time-dependent dephasing vector q ( t) having an orientation, wherein the orientation of the time-dependent dephasing vector q ( t) is changed continuously during the gradient pulse sequence, 0 ≤ t ≤ t E, where t represents the time and t E represents the echo time, and characterized in that the isotropic diffusion weighting is achieved by a continuous sweep of the time-dependent dephasing vector q ( t) where each one of the azimuth angle ψ ( t) in a spherical coordinate system and the magnitude thereof is a continuous function of time so that the time-dependent dephasing vector q ( t) spans an entire range of orientations parallel to a right circular conical surface and so that the orientation of the time-dependent dephasing vector q ( t) at time 0 is identical to the orientation at time t E.
A method for temperature control of a turbine engine compressor, the method comprising: directing a fluid from a first region proximate a main flow path in a downstream portion of a structure (202,204) in a compressor to an upstream portion of the structure (202,204), wherein the fluid is cooled as the fluid flows through the upstream portion of the structure (202,204); both the upstream portion of the structure and the downstream portion of the structure being internal to the compressor; and directing the fluid from the upstream portion of the structure (202,204) downstream to a second region of the compressor to cool the second region, wherein the fluid is directed through passages in the upstream and downstream portions (214,216) of the structure (202,204) thereby transferring heat from the fluid to the structure and wherein a pressure of the second region is less than a pressure of the first region; wherein directing the fluid from the first region proximate the main flow path in the downstream portion of the structure comprises (202,204) directing the fluid from a downstream portion of a stator to an upstream portion of the stator; and wherein directing the fluid from the upstream portion of the structure downstream to the second region of the compressor to cool the second region comprises directing the fluid to the second region including a rotor wheel in a last stage of a rotor located radially inside the stator, the fluid further being configured to cool the rotor. directing a fluid from a first region proximate a main flow path in a downstream portion of a structure (202,204) in a compressor to an upstream portion of the structure (202,204), wherein the fluid is cooled as the fluid flows through the upstream portion of the structure (202,204); both the upstream portion of the structure and the downstream portion of the structure being internal to the compressor; and directing the fluid from the upstream portion of the structure (202,204) downstream to a second region of the compressor to cool the second region, wherein the fluid is directed through passages in the upstream and downstream portions (214,216) of the structure (202,204) thereby transferring heat from the fluid to the structure and wherein a pressure of the second region is less than a pressure of the first region; wherein directing the fluid from the first region proximate the main flow path in the downstream portion of the structure comprises (202,204) directing the fluid from a downstream portion of a stator to an upstream portion of the stator; and wherein directing the fluid from the upstream portion of the structure downstream to the second region of the compressor to cool the second region comprises directing the fluid to the second region including a rotor wheel in a last stage of a rotor located radially inside the stator, the fluid further being configured to cool the rotor.
An image forming control method, applied to a consumable chip, wherein the consumable chip is installed on a consumable (1, 2, 3, 4), and the consumable (1, 2, 3, 4) is detachably installed on an image forming apparatus, the method comprising: obtaining second environmental data of environment where the consumable chip is currently located; and determining a preset compensation value of an image forming control parameter corresponding to the second environmental data and a second preset conversion intermediate parameter corresponding to the second environmental data, the second preset conversion intermediate parameter being an encryption key; generating a first conversion parameter based on the preset compensation value and the second preset conversion intermediate parameter; and sending the first conversion parameter to the image forming apparatus, wherein the first conversion parameter is configured to determine a target image forming control parameter that satisfies a preset image forming condition. obtaining second environmental data of environment where the consumable chip is currently located; and determining a preset compensation value of an image forming control parameter corresponding to the second environmental data and a second preset conversion intermediate parameter corresponding to the second environmental data, the second preset conversion intermediate parameter being an encryption key; generating a first conversion parameter based on the preset compensation value and the second preset conversion intermediate parameter; and sending the first conversion parameter to the image forming apparatus, wherein the first conversion parameter is configured to determine a target image forming control parameter that satisfies a preset image forming condition.
Process for producing textile fabrics by applying one or more binder compositions to fibers, characterized in that binder compositions comprise one or more polysaccharides and one or more polymers of vinyl acetate, wherein the polymers of vinyl acetate are based on vinyl acetate to an extent of 50% to 90% by weight based on the total weight of the polymers of vinyl acetate.
A method for obtaining an animal model for screening anti-tumor drugs, comprising cultivating a primary tumor cell obtained from a tumor sample of a patient in a composition comprising: a) 0.4 mg/L Hydrocortisone; b) 5 mg/L Insulin; c) 8.3 μg/L Cholera toxin; d) 24.2 mg/L Adenine; e) 10 μg/L EGF; f) 10 μmol/L Y- 27632; g) Pen/Strep; h) 10% FBS; i) F12 medium j) DMEM with high glucose k) Non-Essential Amino Acids Solution; l) GlutaMAX Supplement; and m) a mouse embryonic fibroblast cell that has been treated with mitomycin C; and implanting the primary tumor cell obtained from step into an animal, wherein the animal is a mouse. cultivating a primary tumor cell obtained from a tumor sample of a patient in a composition comprising: a) 0.4 mg/L Hydrocortisone; b) 5 mg/L Insulin; c) 8.3 μg/L Cholera toxin; d) 24.2 mg/L Adenine; e) 10 μg/L EGF; f) 10 μmol/L Y- 27632; g) Pen/Strep; h) 10% FBS; i) F12 medium j) DMEM with high glucose k) Non-Essential Amino Acids Solution; l) GlutaMAX Supplement; and m) a mouse embryonic fibroblast cell that has been treated with mitomycin C; and a) 0.4 mg/L Hydrocortisone; b) 5 mg/L Insulin; c) 8.3 μg/L Cholera toxin; d) 24.2 mg/L Adenine; e) 10 μg/L EGF; f) 10 μmol/L Y- 27632; g) Pen/Strep; h) 10% FBS; i) F12 medium j) DMEM with high glucose k) Non-Essential Amino Acids Solution; l) GlutaMAX Supplement; and m) a mouse embryonic fibroblast cell that has been treated with mitomycin C; and implanting the primary tumor cell obtained from step into an animal, wherein the animal is a mouse.
An intravascular catheter system for penetration and imaging of an occlusion comprising: a catheter having a proximal end and a distal end and a longitudinal bore therethrough forming a proximal opening and a distal opening; a guide wire having a proximal end a distal end with a therapeutic tip; a first vibration means for vibrating said therapeutic tip at a first frequency and connected to said therapeutic tip, said first frequency sufficient to penetrate an occlusion, said occlusion located in a vessel having walls; a second vibration means for generating a detectable signal at a second frequency, said second frequency different than said first frequency and transmitted simultaneously therewith, wherein said detectable signal is transmitted via the therapeutic tip to the occlusion and the vessel walls and may be processed into an image of at least one of said tip, occlusion and vessel walls when said therapeutic tip is disposed in said vessel, to enable said tip to be positioned relative to said occlusion and said vessel walls; a power source for energizing said first and second vibration means to generate vibrations or oscillations comprising at least one frequency, said power source being connected to a controller for controlling said vibrational frequency and in conjunction with said power source providing said first and second frequencies to said first and second vibration means simultaneously; and one or more receivers for collecting said detectable signal simultaneously to the penetration of the occlusion. a catheter having a proximal end and a distal end and a longitudinal bore therethrough forming a proximal opening and a distal opening; a guide wire having a proximal end a distal end with a therapeutic tip; a first vibration means for vibrating said therapeutic tip at a first frequency and connected to said therapeutic tip, said first frequency sufficient to penetrate an occlusion, said occlusion located in a vessel having walls; a second vibration means for generating a detectable signal at a second frequency, said second frequency different than said first frequency and transmitted simultaneously therewith, wherein said detectable signal is transmitted via the therapeutic tip to the occlusion and the vessel walls and may be processed into an image of at least one of said tip, occlusion and vessel walls when said therapeutic tip is disposed in said vessel, to enable said tip to be positioned relative to said occlusion and said vessel walls; a power source for energizing said first and second vibration means to generate vibrations or oscillations comprising at least one frequency, said power source being connected to a controller for controlling said vibrational frequency and in conjunction with said power source providing said first and second frequencies to said first and second vibration means simultaneously; and one or more receivers for collecting said detectable signal simultaneously to the penetration of the occlusion.