mhurhangee/patent-ind-claim-en huggingface dataset:
A hybrid wheel loader comprising: - a front work machine provided at the front of a vehicle body of the hybrid wheel loader and including at least a bucket;; - an engine provided in the vehicle body; - a motor/generator connected to the engine ; and - an electric storage device ; wherein the engine , the motor/generator , and the electric storage device are used as a power source, and the hybrid wheel loader further comprises a hybrid control device which is configured to control outputs of the power sources and a capacitor as the electric storage device ; wherein the hybrid control device is configured to carry out a control so as to decrease a voltage of the capacitor in accordance with increase of energy held by the vehicle body, which consists of kinetic energy based on a traveling speed of the vehicle body, or energy obtained by adding at least one of potential energy based on height of the at least one oucket of the front work machine and rotational energy based on rotation speeds of the engine and the motor/generator to the kinetic energy; characterized in that the hybrid control device is configured to carry out a control so as to obtain different characteristics in the voltage of the capacitor relative to the energy held by the vehicle body between a normal operation mode in which normal work operation is carried out and a vehicle standby mode in which the vehicle body is kept standby, while carrying out a control to set the voltage of the capacitor at a first specific voltage value which is lower than a maximum service voltage value and higher than a minimum service voltage value when the energy held by the vehicle body takes a predetermined low output value in the normal operation mode; and when the state in which the energy held by the vehicle body takes the predetermined low output value is continued for a predetermined period of time, the hybrid control device is configured to carry out a control to rise the voltage of the capacitor from the first specific voltage value to the maximum service voltage value, and to then decrease the rotation speed of the engine to a rotation speed in an idle state to thereby bring the vehicle body into the vehicle standby mode. - a front work machine provided at the front of a vehicle body of the hybrid wheel loader and including at least a bucket;; - an engine provided in the vehicle body; - a motor/generator connected to the engine ; and - an electric storage device ; wherein the engine , the motor/generator , and the electric storage device are used as a power source, and the hybrid wheel loader further comprises a hybrid control device which is configured to control outputs of the power sources and a capacitor as the electric storage device ;
An apparatus for a long-term evolution, LTE, communication device , the apparatus comprising at least one processor , and at least one memory including computer program code, wherein the at least one memory and the computer program code are configured, with the at least one processor, to: support cell aggregation for communications with a multiple of cells of an LTE communication system based on a predefined maximum number of cells on a single carrier resource that can be aggregated by the LTE communication device; and signal information of the predefined maximum number of cells the LTE communication device supports for cell aggregation on a single carrier resource to an apparatus for controlling cell aggregation. support cell aggregation for communications with a multiple of cells of an LTE communication system based on a predefined maximum number of cells on a single carrier resource that can be aggregated by the LTE communication device; and signal information of the predefined maximum number of cells the LTE communication device supports for cell aggregation on a single carrier resource to an apparatus for controlling cell aggregation.
A method for producing three-dimensional parts , wherein a particulate material is applied layer by layer onto a construction field, an absorber is selectively applied, the areas with absorber are solidified by energy input, and these steps are repeated until the three-dimensional part or parts is/are obtained, wherein the particulate material is applied by means of a recoater and the absorber is selectively applied by a print head and the particulate material is selectively solidified by energy input means , characterised in that the recoater is an oscillating blade recoater having a temperature of 70 °C to 155 °C, the particulate material is applied by generating a particulate material roll in front of the recoater in the coating direction, the diameter of the particulate material roll is adjustable, and the particulate material is heated to or kept at a temperature of 155 °C to 180 °C by energy input means during application onto the construction field.
Method for obtaining an air product (GOX-IC) in an air-separating system in which a liquid fraction is obtained from feed air and is at least partially used for providing the air product (GOX-IC), wherein the liquid fraction is temporarily stored in a tank arrangement having at least two tanks , wherein the liquid fraction is fed to at least one of the tanks and is withdrawn from at least one of the tanks in order to provide the air product (GOX-IC), and in the process is fed to and withdrawn from none of the tanks simultaneously, and wherein the pressure of the liquid fraction in the tank arrangement is increased by means of pressure build-up vaporization, characterized in that the composition of the liquid fraction in the tank is determined in each case before the liquid fraction is withdrawn from a tank .
A method for cleaning a wash water source comprising: (a) generating an aqueous use solution by contacting an enzyme composition with water, wherein said aqueous use solution comprises between approximately 0.1 ppm and 20 ppm enzyme; and (b) cleaning a wash water source with said aqueous use solution, wherein the wash water source is a ware wash sump or a laundry sump. (a) generating an aqueous use solution by contacting an enzyme composition with water, wherein said aqueous use solution comprises between approximately 0.1 ppm and 20 ppm enzyme; and (b) cleaning a wash water source with said aqueous use solution, wherein the wash water source is a ware wash sump or a laundry sump.
A beach tennis racquet comprising: a handle ; a frame attached to the handle , the frame defining a hitting area; and a composite striking element located within the frame in the hitting area, the composite striking element comprising a non-woven core , first and second sheets of a material selected from fiberglass and carbon fiber applied to and covering first and second sides of the core , and third and fourth sheets of a material selected from fiberglass and carbon fiber applied to and covering the first and second sheets ; wherein a maximum thickness of the composite striking element is no greater than two millimeters. a handle ; a frame attached to the handle , the frame defining a hitting area; and a composite striking element located within the frame in the hitting area, the composite striking element comprising a non-woven core , first and second sheets of a material selected from fiberglass and carbon fiber applied to and covering first and second sides of the core , and third and fourth sheets of a material selected from fiberglass and carbon fiber applied to and covering the first and second sheets ; wherein a maximum thickness of the composite striking element is no greater than two millimeters.
A method for cutting tubes in a laser tube cutting machine , - in which a tube to be processed is held with a workpiece moving device and is displaced in the X direction relative to a feed-through device supporting the tube , - in which the tube is processed with a laser processing device and during the laser processing the tube is guided in the Y and Z direction by clamping jaws of the feed-through device and held with a clamping force, and - in which the tube is additionally mechanically processed with a tool of a processing apparatus , which tool is displaced relative to the tube in at least one movement axis, characterised in that - at least one brace is moved with the tool into a working position to abut against the tube before the beginning of the mechanical processing of the tube . - in which a tube to be processed is held with a workpiece moving device and is displaced in the X direction relative to a feed-through device supporting the tube , - in which the tube is processed with a laser processing device and during the laser processing the tube is guided in the Y and Z direction by clamping jaws of the feed-through device and held with a clamping force, and - in which the tube is additionally mechanically processed with a tool of a processing apparatus , which tool is displaced relative to the tube in at least one movement axis, - at least one brace is moved with the tool into a working position to abut against the tube before the beginning of the mechanical processing of the tube .
Method for estimating the surface water activity aws of a product being dried in a dryer comprising at least one relative humidity HR probe of the dryer atmosphere, the process comprises the following steps carried out by computational means: - obtaining by means of the at least one relative humidity HR probe a set of relative HRi humidity values of the dryer atmosphere at time points ti during the product drying process; - obtaining a set of HR ri (%) representative values based on the relative humidity HRi values during the drying process of the product; - obtaining a set of evaporation rate values TE i based on the set of HRi and ti values; - obtaining the regression line of the function F ( α,β ) = F(HRri, TE i ), such that: α = HReq , β = 0 β = T E m á x , α = 0 - wherein HReq is the relative humidity when the air and the surface of the product being dried are in equilibrium, - wherein TEmáx is the maximum evaporation rate when HR of the air of the dryer is zero, and - estimating the value of aws of the product being dried based on HReq, such that: aws = HReq 100 - obtaining by means of the at least one relative humidity HR probe a set of relative HRi humidity values of the dryer atmosphere at time points ti during the product drying process; - obtaining a set of HR ri (%) representative values based on the relative humidity HRi values during the drying process of the product; - obtaining a set of evaporation rate values TE i based on the set of HRi and ti values; - obtaining the regression line of the function F ( α,β ) = F(HRri, TE i ), such that: α = HReq , β = 0 β = T E m á x , α = 0 - wherein HReq is the relative humidity when the air and the surface of the product being dried are in equilibrium, - wherein TEmáx is the maximum evaporation rate when HR of the air of the dryer is zero, and - estimating the value of aws of the product being dried based on HReq, such that: aws = HReq 100
A method for customizing a key of a foldable device, wherein when the foldable device is in a folded state, a touchscreen of the foldable device is divided into three regions: a primary screen, a back screen, and a secondary screen, and the method comprises: receiving (S101) a first user operation, wherein the first user operation is used to indicate the foldable device to add a custom key on the back screen or the secondary screen; obtaining (S102) a physical state of the foldable device, wherein the physical state comprises a folded state or an unfolded state; and if the foldable device is in the folded state (S103 Yes), adding (S104) the custom key on the back screen or the secondary screen based on the first user operation, wherein the adding the custom key on the back screen or the secondary screen comprises: receiving (S201) a second user operation, wherein the second user operation acts at a first position on the back screen or the secondary screen; adding the custom key at the first position in response to the second user operation; receiving (S302) a second touch operation on the primary screen by a user; and establishing (S305) a mapping relationship between a first touch operation on the custom key and a second touch event corresponding to the second touch operation based on the second touch operation. receiving (S101) a first user operation, wherein the first user operation is used to indicate the foldable device to add a custom key on the back screen or the secondary screen; obtaining (S102) a physical state of the foldable device, wherein the physical state comprises a folded state or an unfolded state; and if the foldable device is in the folded state (S103 Yes), adding (S104) the custom key on the back screen or the secondary screen based on the first user operation, wherein the adding the custom key on the back screen or the secondary screen comprises: receiving (S201) a second user operation, wherein the second user operation acts at a first position on the back screen or the secondary screen; adding the custom key at the first position in response to the second user operation; receiving (S302) a second touch operation on the primary screen by a user; and establishing (S305) a mapping relationship between a first touch operation on the custom key and a second touch event corresponding to the second touch operation based on the second touch operation. receiving (S201) a second user operation, wherein the second user operation acts at a first position on the back screen or the secondary screen; adding the custom key at the first position in response to the second user operation; receiving (S302) a second touch operation on the primary screen by a user; and establishing (S305) a mapping relationship between a first touch operation on the custom key and a second touch event corresponding to the second touch operation based on the second touch operation.
A nasal continuous positive airway pressure device comprising: - a neck region connected to a mask or nasal prong; and - an elongated flexible tube comprising co-axial inner and outer tubes, and wherein the inner and outer tubes are spaced to define a first lumen within the outer tube , and wherein a second lumen is defined by the inner tube wall alone; and - an oxygen gas supply; characterized in that the second lumen is connected to said oxygen gas supply at the distal end of the elongated flexible tube system , and to said neck region at the proximal end of the elongated flexible tube ; wherein the first lumen is connected to the neck region at the proximal end of the elongated flexible tube ; wherein the neck region comprises: - a tube part connected to the proximal end of the inner tube , and comprising a lumen in fluid communication with the second lumen ; and - a cone part connected to the proximal end of the outer tube , and comprising a lumen in fluid communication with the first lumen ; wherein the cone part is positioned around at least a part of the tube part ; wherein the lumen of the tube part is in fluid communication with the lumen of the cone part through one or more apertures in the wall of the tube part . - a neck region connected to a mask or nasal prong; and - an elongated flexible tube comprising co-axial inner and outer tubes, and wherein the inner and outer tubes are spaced to define a first lumen within the outer tube , and wherein a second lumen is defined by the inner tube wall alone; and - an oxygen gas supply; - a tube part connected to the proximal end of the inner tube , and comprising a lumen in fluid communication with the second lumen ; and - a cone part connected to the proximal end of the outer tube , and comprising a lumen in fluid communication with the first lumen ; wherein the cone part is positioned around at least a part of the tube part ;
A method for manufacturing panels having a decorative surface wherein said panels comprise a substrate and a top layer wherein said top layer comprises a paper layer having a printed pattern, wherein said method comprises the steps of: providing the paper layer with a thermosetting resin ; providing the resin provided paper layer with a printed pattern; wherein providing the printed pattern involves depositing water based inks using a digital inkjet printer ; wherein the water based inks are pigment containing inks; wherein the paper layer at least includes an inkjet receiving coating such that the inks are deposited on the inkjet receiver coating ; and wherein the paper has a mean air resistance according to the Gurley method (Tappi T460) of below 30 seconds, preferably below 25 seconds; characterized in that said printed pattern covers 80 percent or more of the surface of said paper layer, in that the dry volume of the deposited pigment containing inks is lower than 9 grams per square meter, and in that the inkjet receiver coating includes a pigment having a pore volume of 0.5 to 3 ml/g. providing the paper layer with a thermosetting resin ; providing the resin provided paper layer with a printed pattern; wherein providing the printed pattern involves depositing water based inks using a digital inkjet printer ; wherein the water based inks are pigment containing inks; wherein the paper layer at least includes an inkjet receiving coating such that the inks are deposited on the inkjet receiver coating ; and wherein the paper has a mean air resistance according to the Gurley method (Tappi T460) of below 30 seconds, preferably below 25 seconds; characterized in that said printed pattern covers 80 percent or more of the surface of said paper layer, in that the dry volume of the deposited pigment containing inks is lower than 9 grams per square meter, and in that the inkjet receiver coating includes a pigment having a pore volume of 0.5 to 3 ml/g.
A panel comprising a display support enabling an image to be displayed on a front face of the support and wall hanging means disposed on a rear face of the support , wherein the wall hanging means comprise at least one planar profiled section which is capable of being folded over on itself to form a rigid tubular profiled section , one of the faces of the tubular profiled section being non-reversibly secured to said rear face of the support , the planar profiled section comprising a first elongated edge provided with first securing means , said first securing means being capable of cooperating continuously with complementary second securing means along the entire length of said planar profiled section and enabling the planar profiled section to be held in position in a folded position which is in the shape of the rigid tubular profiled section , characterized in that the planar profiled section comprises at least one opening intended to enable a hanging hook to be introduced into the interior of the volume of the tubular profiled section , and in that the planar profiled section comprises two parallel grooves which are intended to facilitate folding of the profiled section into the shape of the tubular profiled section , said grooves being disposed at the ridges of the tubular profiled section once the profiled section has been folded.
LIDAR device for scanning solid angles (A) with at least one beam , comprising at least one horizontally rotatably arranged beam source for generating at least one beam , comprising at least one generating optical unit for shaping the at least one generated beam , comprising a horizontally rotatable receiving optical unit for receiving at least one beam reflected at an object and for deflecting the at least one reflected beam onto a detector , characterized in that the device is configured such that the at least one generated beam is shaped variably depending on a rotational position of the beam source .
A semiconductor device, comprising: a substrate , a plurality of conductive contact plugs which are arranged at intervals being formed on the substrate ; a capacitor array , the capacitor array comprising a plurality of columnar capacitors which are arranged at intervals, each of the columnar capacitors being formed on a respective one of the conductive contact plugs , and a lower electrode layer of the columnar capacitor being in contact connection with the conductive contact plug ; and a supporting structure , the supporting structure being formed on the substrate at an edge of the capacitor array and surrounding the capacitor array , and a spacing between an inner wall and an outer wall of the supporting structure on any cross section parallel to the substrate being greater than an aperture of a capacitor hole of any one of the columnar capacitors on the cross section, wherein an insulating dielectric layer is at least formed on the substrate , and the capacitor array and the supporting structure are formed in the insulating dielectric layer , characterized in that the supporting structure is a non-continuous segment and comprises a plurality of supporting regions which are distributed at intervals and supporting columns, each of the supporting columns is formed on a respective one of the supporting regions, and each of the supporting columns is in contact connection with the insulating dielectric layer , to provide segmented support for the capacitor array . a substrate , a plurality of conductive contact plugs which are arranged at intervals being formed on the substrate ; a capacitor array , the capacitor array comprising a plurality of columnar capacitors which are arranged at intervals, each of the columnar capacitors being formed on a respective one of the conductive contact plugs , and a lower electrode layer of the columnar capacitor being in contact connection with the conductive contact plug ; and a supporting structure , the supporting structure being formed on the substrate at an edge of the capacitor array and surrounding the capacitor array , and a spacing between an inner wall and an outer wall of the supporting structure on any cross section parallel to the substrate being greater than an aperture of a capacitor hole of any one of the columnar capacitors on the cross section, wherein an insulating dielectric layer is at least formed on the substrate , and the capacitor array and the supporting structure are formed in the insulating dielectric layer , characterized in that the supporting structure is a non-continuous segment and comprises a plurality of supporting regions which are distributed at intervals and supporting columns, each of the supporting columns is formed on a respective one of the supporting regions, and each of the supporting columns is in contact connection with the insulating dielectric layer , to provide segmented support for the capacitor array .
A method of making a carbon molecular sieve membrane comprising, (i) providing a precursor polymer, wherein the precursor polymer is a polyimide, wherein the precursor polymer is formed into hollow fiber or film form; (ii) heating said precursor polymer in hollow fiber or film form to a pyrolysis temperature of 450°C to 800°C, where the precursor polymer undergoes pyrolysis to form the carbon molecular sieve membrane; (iii) cooling the carbon molecular sieve membrane to a cooling temperature less than or equal to 50°C; and (iv) after the cooling, heating the carbon molecular sieve membrane to a reheating temperature of at least 110°C to at most 200°C for a reheating time from 30 minutes to 500 hours under a reheating atmosphere and then (v) cooling back to below 50°C. (i) providing a precursor polymer, wherein the precursor polymer is a polyimide, wherein the precursor polymer is formed into hollow fiber or film form; (ii) heating said precursor polymer in hollow fiber or film form to a pyrolysis temperature of 450°C to 800°C, where the precursor polymer undergoes pyrolysis to form the carbon molecular sieve membrane; (iii) cooling the carbon molecular sieve membrane to a cooling temperature less than or equal to 50°C; and (iv) after the cooling, heating the carbon molecular sieve membrane to a reheating temperature of at least 110°C to at most 200°C for a reheating time from 30 minutes to 500 hours under a reheating atmosphere and then (v) cooling back to below 50°C.