mhurhangee/patent-ind-claim-en huggingface dataset:
Laundry treatment device with a water container for receiving washing liquid, wherein a laundry drum for receiving laundry is arranged in the water container , wherein the water container comprises an outlet opening , wherein the laundry treatment device has an inlet nozzle for introducing washing liquid into the laundry drum , wherein the outlet opening is connected in a fluidic manner to the inlet nozzle through a line , wherein a recirculation device for pumping washing liquid is arranged in the line , wherein the recirculation device is embodied to pump washing liquid through the outlet opening out of the water container , and to pump the pumped-out washing liquid through the line and through the inlet nozzle back into the laundry drum arranged in the water container , in order to wet the laundry in the laundry drum again with washing liquid, and a controller for controlling the recirculation device , wherein the controller is embodied to activate a delivery operation of the recirculation device at the start of a recirculation time segment, in order to pump washing liquid through the outlet opening out of the water container , and to supply the pumped-out washing liquid through the line and through the inlet nozzle back to the laundry in the laundry drum , wherein the controller is embodied to deactivate the delivery operation of the recirculation device , to terminate the recirculation time segment and to acquire the duration of the recirculation time segment when the volume flow of the washing liquid pumped through the recirculation device does not reach a volume flow threshold value, characterised in that the controller is embodied to determine the quantity of the laundry load in the laundry drum as a function of the acquired duration of the recirculation time segment, wherein the laundry treatment device has a washing liquid supply for supplying washing liquid to the laundry in the laundry drum , and wherein the controller is embodied to activate the washing liquid supply in a supply time segment in order to supply a first quantity of washing liquid to the laundry in the laundry drum and to wet the laundry , wherein the recirculation time segment follows the supply time segment.
A parking control method for controlling a vehicle on a basis of an operation command related to parking control acquired from outside of the vehicle, the parking control method comprising: Evaluating, around the vehicle, a level of a communication environment of communication for transmitting the operation command related to the parking control to the vehicle; calculating a parameter relating to control of the vehicle used for performing the parking control in accordance with the level of the communication environment; and controlling the vehicle to park on a basis of the parameter. Evaluating, around the vehicle, a level of a communication environment of communication for transmitting the operation command related to the parking control to the vehicle; calculating a parameter relating to control of the vehicle used for performing the parking control in accordance with the level of the communication environment; and controlling the vehicle to park on a basis of the parameter.
A method for extruding a confectionery, the method comprising: supplying a plurality of ingredients to a planetary roller extruder ; mixing said plurality of ingredients to form a confectionery composition in said mixer ; removing moisture from said confectionery composition in said planetary roller extruder forming crystals in said confectionery composition while said confectionery composition is in said planetary roller extruder ; producing said confectionery composition to include a density between about 0.5 and 1.6 g/cm 3 ; and outputting said confectionery composition from said planetary roller extruder , wherein said confectionery composition is a soft candy. supplying a plurality of ingredients to a planetary roller extruder ; mixing said plurality of ingredients to form a confectionery composition in said mixer ; removing moisture from said confectionery composition in said planetary roller extruder forming crystals in said confectionery composition while said confectionery composition is in said planetary roller extruder ; producing said confectionery composition to include a density between about 0.5 and 1.6 g/cm 3 ; and outputting said confectionery composition from said planetary roller extruder , wherein said confectionery composition is a soft candy.
A method for the examination of a sample , said method comprising the following steps: a) generation of a digital image (I) of the sample ; b) analyzing said digital image with respect to at least one sample-parameter; c) selection of a region of interest (Ri) in said digital image (I); d) isolation of a region of interest (R S ) from the sample that corresponds to the selected region of interest in said digital image; e) execution of a molecular assay with the region of interest isolated from the sample to obtain assay-data; f) linking assay-data to the sample-parameter of the corresponding sample region in order that the assay-data and said digital image are simultaneously accessible; characterized in that : the sample parameter indicates a local amount of a particular cell type or a tissue type. a) generation of a digital image (I) of the sample ; b) analyzing said digital image with respect to at least one sample-parameter; c) selection of a region of interest (Ri) in said digital image (I); d) isolation of a region of interest (R S ) from the sample that corresponds to the selected region of interest in said digital image; e) execution of a molecular assay with the region of interest isolated from the sample to obtain assay-data; f) linking assay-data to the sample-parameter of the corresponding sample region in order that the assay-data and said digital image are simultaneously accessible;
A coating liquid comprising: an aerogel particle; a liquid medium; at least one of organic fiber and inorganic fiber as a fibrous substance; a first binder resin that is a cellulose-based resin; and a second binder resin having lower solubility in the liquid medium than the first binder resin, wherein the second binder resin is a thermoplastic acrylic resin, or the second binder resin is a thermosetting epoxy resin and the coating liquid further comprises an epoxy resin curing agent, wherein the aerogel is a dried substance of a wet gel that is a condensate of a sol containing at least one selected from the group consisting of a silicon compound having a hydrolyzable functional group or a condensable functional group, and the hydrolysis product of the silicon compound having a hydrolyzable functional group, and a silica particle, wherein a specific surface area of the aerogel particle is 30 to 350 m 2 /g as determined by the BET method, and wherein the liquid medium is a water-based solvent containing water. an aerogel particle; a liquid medium; at least one of organic fiber and inorganic fiber as a fibrous substance; a first binder resin that is a cellulose-based resin; and a second binder resin having lower solubility in the liquid medium than the first binder resin, wherein the second binder resin is a thermoplastic acrylic resin, or the second binder resin is a thermosetting epoxy resin and the coating liquid further comprises an epoxy resin curing agent, wherein the aerogel is a dried substance of a wet gel that is a condensate of a sol containing at least one selected from the group consisting of a silicon compound having a hydrolyzable functional group or a condensable functional group, and the hydrolysis product of the silicon compound having a hydrolyzable functional group, and a silica particle, wherein a specific surface area of the aerogel particle is 30 to 350 m 2 /g as determined by the BET method, and wherein the liquid medium is a water-based solvent containing water.
A device for detecting the contact with a display, comprising: - a glass body (G), - an electrode arrangement (E) comprising at least on electrode section, - a bearing structure (B) for supporting the glass body (G) such that it experiences sufficient displacement as a result of a compressive force applied during contact with the glass body (G), - a capacity sensor, - wherein the at least one electrode section is coupled with the glass body (G) and the at least one electrode section forms part of a capacitive system whose capacity is changing by loading the bearing structure (B) characterized in that the at least one electrode section is applied directly to the lower side of the glass body (G), and the bearing structure (B) is arranged on a metal frame (R) arranged below the glass body such that each electrode section (E) in combination with the metal frame (R) and the bearing structure (B) forms a variable capacitor, which may be coupled with the capacity sensor and the capacity sensor is formed such that - a change of capacity of the capacitive system is detected by means of a phase shift effect, and - the electrode arrangement forms part of a LC network and the inductance thereof is formed by a gyrator circuit. - a glass body (G), - an electrode arrangement (E) comprising at least on electrode section, - a bearing structure (B) for supporting the glass body (G) such that it experiences sufficient displacement as a result of a compressive force applied during contact with the glass body (G), - a capacity sensor, - wherein the at least one electrode section is coupled with the glass body (G) and the at least one electrode section forms part of a capacitive system whose capacity is changing by loading the bearing structure (B) characterized in that the at least one electrode section is applied directly to the lower side of the glass body (G), and the bearing structure (B) is arranged on a metal frame (R) arranged below the glass body such that each electrode section (E) in combination with the metal frame (R) and the bearing structure (B) forms a variable capacitor, which may be coupled with the capacity sensor and the capacity sensor is formed such that - a change of capacity of the capacitive system is detected by means of a phase shift effect, and - the electrode arrangement forms part of a LC network and the inductance thereof is formed by a gyrator circuit.
An image forming apparatus including a photosensitive member and light-irradiation means configured to expose and scan a plurality of sections in a main scanning direction with laser light at a non-constant scanning velocity based on image data indicating image density to form a latent image on the photosensitive member , the image forming apparatus comprising: emission time control means configured to control, based on which section in the main scanning direction laser light corresponds to, an emission time for emitting the laser light to scan a predetermined width on the photosensitive member with the laser light ; the image forming apparatus being characterised in that it further comprises: density control means configured to control a piece of the image data to control density based on which section in the main scanning direction the piece of the image data corresponds to, wherein the emission time control means controls an emission time of the laser light to scan the predetermined width to be a first time in a first section in the main scanning direction to be exposed and scanned at a first scanning velocity, and the density control means controls a piece of the image data corresponding to the first section to be first density (FOh), wherein the emission time control means controls an emission time of the laser light to scan the predetermined width to be a second time in a second section in the main scanning direction to be exposed and scanned at a second scanning velocity faster than the first scanning velocity, and the density control means controls a piece of the image data corresponding to the second section to be second density (F8h), and wherein the second time is shorter than the first time, and the second density (F8h) is higher than the first density (FOh). emission time control means configured to control, based on which section in the main scanning direction laser light corresponds to, an emission time for emitting the laser light to scan a predetermined width on the photosensitive member with the laser light ; density control means configured to control a piece of the image data to control density based on which section in the main scanning direction the piece of the image data corresponds to, wherein the emission time control means controls an emission time of the laser light to scan the predetermined width to be a first time in a first section in the main scanning direction to be exposed and scanned at a first scanning velocity, and the density control means controls a piece of the image data corresponding to the first section to be first density (FOh), wherein the emission time control means controls an emission time of the laser light to scan the predetermined width to be a second time in a second section in the main scanning direction to be exposed and scanned at a second scanning velocity faster than the first scanning velocity, and the density control means controls a piece of the image data corresponding to the second section to be second density (F8h), and wherein the second time is shorter than the first time, and the second density (F8h) is higher than the first density (FOh).
Lance head for the projection of coatings, including: - a body made by molding, - a nozzle mobile via screwing, - a stationary air injector , - a supply valve and an exhaust valve , which allow to adjust the flow rate of air in the lance head , - a blocking screw , allowing to maintain the air injector in its position after it is put in place, said nozzle being screwed onto said body , allowing a good adjustment of its position with respect to the injector , the lance head being characterized in that it further includes marking elements, allowing to precisely adjust the forward or rearward movement of the nozzle in order to adjust the coating-projection jet and provide a reference with respect to the position of the air injector . - a body made by molding, - a nozzle mobile via screwing, - a stationary air injector , - a supply valve and an exhaust valve , which allow to adjust the flow rate of air in the lance head , - a blocking screw , allowing to maintain the air injector in its position after it is put in place, said nozzle being screwed onto said body , allowing a good adjustment of its position with respect to the injector , the lance head being characterized in that it further includes marking elements, allowing to precisely adjust the forward or rearward movement of the nozzle in order to adjust the coating-projection jet and provide a reference with respect to the position of the air injector .
A method implemented by a Proxy-Call Serving Control Function, P-CSCF, node in an Internet Protocol based Multimedia Subsystem, IMS, network, for registering a User Equipment, UE, operating in a telecommunication network with the IMS, network, said method comprising the steps of: receiving from the UE a Session Initiation Protocol, SIP, Register message for registering said UE in said IMS network; determining that said SIP Register message comprises an indication that said UE is using a low access priority, wherein said low access priority indicates at least a reduced priority for said UE for accessing network resources in the telecommunication network; responsive to said SIP Register message, requesting a Policy and Charging Rules Function, PCRF, node in the telecommunication network whether said UE is using said low access priority; receiving, from said PCRF node, an acknowledgement that said UE is using said low access priority; and establishing said registration of said UE with said determined low access priority indication. receiving from the UE a Session Initiation Protocol, SIP, Register message for registering said UE in said IMS network; determining that said SIP Register message comprises an indication that said UE is using a low access priority, wherein said low access priority indicates at least a reduced priority for said UE for accessing network resources in the telecommunication network; responsive to said SIP Register message, requesting a Policy and Charging Rules Function, PCRF, node in the telecommunication network whether said UE is using said low access priority; receiving, from said PCRF node, an acknowledgement that said UE is using said low access priority; and establishing said registration of said UE with said determined low access priority indication.
A buffer unit configured to store and transfer adhesive particulate to an adhesive melter, the buffer unit comprising: a buffer bin defined by a housing including a bottom wall and a sidewall extending from said bottom wall to form an interior space; characterized by an agitator plate positioned within said buffer bin so as to be angled from a horizontal orientation, said agitator plate including an upper end operatively coupled to said sidewall and a bottom end operatively coupled to said bottom wall, said agitator plate dividing said interior space into a lower chamber portion and an upper chamber portion configured to receive a bulk supply of adhesive particulate; a vibration generating mechanism operatively coupled to said agitator plate and configured to selectively vibrate said agitator plate to produce a relative motion between said agitator plate and the bulk supply of adhesive particulate, the relative motion configured to agitate the bulk supply to generate a flow offluidized adhesive particulate which moves towards said bottom end of said agitator plate ; and at least one pump inlet located in said buffer bin proximate to said bottom end of said agitator plate , each pump inlet configured to receive the flow of fluidized adhesive particulate moving towards said bottom end to be transferred to the adhesive melter. a buffer bin defined by a housing including a bottom wall and a sidewall extending from said bottom wall to form an interior space; characterized by an agitator plate positioned within said buffer bin so as to be angled from a horizontal orientation, said agitator plate including an upper end operatively coupled to said sidewall and a bottom end operatively coupled to said bottom wall, said agitator plate dividing said interior space into a lower chamber portion and an upper chamber portion configured to receive a bulk supply of adhesive particulate; a vibration generating mechanism operatively coupled to said agitator plate and configured to selectively vibrate said agitator plate to produce a relative motion between said agitator plate and the bulk supply of adhesive particulate, the relative motion configured to agitate the bulk supply to generate a flow offluidized adhesive particulate which moves towards said bottom end of said agitator plate ; and at least one pump inlet located in said buffer bin proximate to said bottom end of said agitator plate , each pump inlet configured to receive the flow of fluidized adhesive particulate moving towards said bottom end to be transferred to the adhesive melter.
Production plant for workpieces , in particular bodywork components, wherein the production plant has a production zone with a plurality of automatic, programme-controlled production devices and also has a supply station for workpieces , wherein the production plant has a supply station for various application-specific tools and also a conveyor , characterized in that the conveyor connects the production devices (18-22) to one another and to the external supply stations in a flexible manner, wherein the conveyor has a network of conveying paths and a multiplicity of individually controllable conveying means , which travel over freely programmable conveying tracks in the network of conveying paths , wherein a conveying path extends into, and preferably through, a production device (18-22).
An inkjet printer comprising: a head provided with a nozzle surface having nozzles configured to eject an ink; an ink supply portion configured to supply ink to the head and comprising an ink supply flow path ; a circulation flow path formed in the head and the ink supply flow path or in the ink supply flow path, and configured to circulate the ink; a cap capable of coming into contact with the nozzle surface; a first pump connected to an exhaust hole formed in the cap; a processor ; and a memory storing computer-readable instructions which, when executed by the processor, perform processes including: a soaking processing (S13, S33) that drives the first pump and causes the nozzle surface to be soaked in liquid, in a capping state in which the cap is in contact with the nozzle surface, and a circulation processing (S14, S34) that causes the ink to circulate in the circulation flow path in the capping state in which the nozzle surface is soaked in the liquid, after the soaking processing. a head provided with a nozzle surface having nozzles configured to eject an ink; an ink supply portion configured to supply ink to the head and comprising an ink supply flow path ; a circulation flow path formed in the head and the ink supply flow path or in the ink supply flow path, and configured to circulate the ink; a cap capable of coming into contact with the nozzle surface; a first pump connected to an exhaust hole formed in the cap; a processor ; and a memory storing computer-readable instructions which, when executed by the processor, perform processes including: a soaking processing (S13, S33) that drives the first pump and causes the nozzle surface to be soaked in liquid, in a capping state in which the cap is in contact with the nozzle surface, and a circulation processing (S14, S34) that causes the ink to circulate in the circulation flow path in the capping state in which the nozzle surface is soaked in the liquid, after the soaking processing. a soaking processing (S13, S33) that drives the first pump and causes the nozzle surface to be soaked in liquid, in a capping state in which the cap is in contact with the nozzle surface, and a circulation processing (S14, S34) that causes the ink to circulate in the circulation flow path in the capping state in which the nozzle surface is soaked in the liquid, after the soaking processing.
An aluminum alloy comprising 11.0-13.0% Si, ≤0.3% Fe, 0.3-2.0% Mg, 2.0-5.0% Cu, 3.0-4.0% Ni, 0.2-1.0% Mn, 0.05-0.4% Cr, and 0.05-0.4% V, with the remainder comprising aluminum and unavoidable impurities, wherein the aluminum alloy further contains, as optional components, 0.05-0.4% Ti, 0.05-0.4% Zr, and 0.0005-0.015% P. 11.0-13.0% Si, ≤0.3% Fe, 0.3-2.0% Mg, 2.0-5.0% Cu, 3.0-4.0% Ni, 0.2-1.0% Mn, 0.05-0.4% Cr, and 0.05-0.4% V, with the remainder comprising aluminum and unavoidable impurities, wherein the aluminum alloy further contains, as optional components, 0.05-0.4% Ti, 0.05-0.4% Zr, and 0.0005-0.015% P.