mhurhangee/ep-ind-claims huggingface dataset:
System for controlling a unit for forming containers from blanks of thermoplastic material equipped with a series of forming stations each provided with a mould with the imprint of a container, this system comprising a master control unit and a series of slave controllers slaved to the master control unit and each associated with at least one forming station, each controller being programmed to: - drive the or each associated forming station according to a forming set point loaded in the controller; - take account of a pressure measurement in the mould, - from this measurement, establish a blowing curve describing the trend of the fluid pressure in the mould, - analyse the blowing curve and extract therefrom the coordinates of at least one singular point, - communicate the singular point to the control unit, - and in that the master control unit is programmed to: - drive the controllers, - take account of the or each singular point communicated by each controller, - compute a characteristic point that is a function of the singular point or points, - compare the characteristic point with a theoretical point stored in the control unit, - if a deviation is detected between the characteristic point and the theoretical point, prescribe a corrected forming set point, - load the corrected forming set point into the or each controller. - drive the or each associated forming station according to a forming set point loaded in the controller; - take account of a pressure measurement in the mould, - from this measurement, establish a blowing curve describing the trend of the fluid pressure in the mould, - analyse the blowing curve and extract therefrom the coordinates of at least one singular point, - communicate the singular point to the control unit, - and in that the master control unit is programmed to: - drive the controllers, - take account of the or each singular point communicated by each controller, - compute a characteristic point that is a function of the singular point or points, - compare the characteristic point with a theoretical point stored in the control unit, - if a deviation is detected between the characteristic point and the theoretical point, prescribe a corrected forming set point, - load the corrected forming set point into the or each controller.
A method for the electroless deposition of a metal layer on a substrate comprising contacting the substrate to be plated with a plating formulation comprising a metal ion source for the metal to be deposited, a reducing agent, wherein the reducing agent is a compound of the group consisting of sodium hypophosphite, formaldehyde, dimethyl aminoborane, amino borane, and other organic boranes; a complexing agent, wherein the complexing agent is a compound of the group consisting of 2-hydroxy propionic acid, propanedioic acid (malonic acid), EDTA and amino acetic acid; an accelerator, wherein the accelerator is a compound of the group consisting of saccharin, hydantoin, rhodanine, or carbamide and its derivates; a β-amino acid and/or β-amino acid derivative as stabilizer, wherein the total equivalent concentration of β-amino acid in the plating bath is in the range of 0.05 to 1.2 g/L.
A grasping apparatus comprising: an arm unit; a hand unit (140,340,440) configured for grasping a target object that deforms under the influence of gravity when being grasped, the hand unit being connected to the arm unit; an observation unit (141,343) configured for observing a second spot (142,344) of the hand unit, the observation unit being disposed in a first spot of the hand unit; a grasping control unit configured to make the hand unit perform a grasping motion of grasping the target object; and a determination unit configured to perform a determination operation of making the arm unit move and displacing the whole hand unit so that a part of the target object that is not grasped by the hand unit may cover the second spot in a state where the grasping control unit has brought the hand unit to a standstill after making the hand unit perform a grasping motion, and determine that the hand unit has successfully grasped the target object when the observation unit can no longer observe the second spot after starting the determination operation. an arm unit; a hand unit (140,340,440) configured for grasping a target object that deforms under the influence of gravity when being grasped, the hand unit being connected to the arm unit; an observation unit (141,343) configured for observing a second spot (142,344) of the hand unit, the observation unit being disposed in a first spot of the hand unit; a grasping control unit configured to make the hand unit perform a grasping motion of grasping the target object; and a determination unit configured to perform a determination operation of making the arm unit move and displacing the whole hand unit so that a part of the target object that is not grasped by the hand unit may cover the second spot in a state where the grasping control unit has brought the hand unit to a standstill after making the hand unit perform a grasping motion, and determine that the hand unit has successfully grasped the target object when the observation unit can no longer observe the second spot after starting the determination operation.
A multilayer transparent electroconductive film comprising: a first transparent electroconductive film mainly composed of zinc oxide; and a second transparent electroconductive film mainly composed of zinc oxide, having a composition different from the composition of the first transparent electroconductive film, which is stacked on the first transparent electroconductive film, wherein the first transparent electroconductive film contains one or more added elements selected from aluminum and gallium, with the content of the added elements being in a range represented by the following inequality, and the second transparent electroconductive film contains one or more added elements selected from aluminum and gallium, with the content of the added elements being in a range represented by the following inequality: − 2.18 × Al + 1.74 ≦ Ga ≦ − 1.92 × Al + 6.10 − Al + 0.30 ≦ Ga ≦ − 2.68 × Al + 1.74 wherein [Al] is the aluminum content expressed as the atomic ratio (%) Al/(Zn + Al), and [Ga] is the gallium content expressed as the atomic ratio (%) Ga/(Zn + Ga). a first transparent electroconductive film mainly composed of zinc oxide; and a second transparent electroconductive film mainly composed of zinc oxide, having a composition different from the composition of the first transparent electroconductive film, which is stacked on the first transparent electroconductive film,
An electrical robotic lawnmower having a deactivated state, a stand by state and an activated state, and comprising an electric motor and a working tool, wherein the electric motor is arranged to drive the working tool in the activated state, characterized in that a removable disabling device is arranged to be positioned in a first, a second, and a third position in a retainer of the electrical robotic lawnmower, and wherein the first position constitutes an off position in which the electrical robotic lawnmower is in a deactivated state, and wherein the second position constitutes a stand by position in which the electrical robotic lawnmower is in a stand by state, and wherein the third position constitutes an on position in which the electrical robotic lawnmower is in an activated state.
Moulded inner dash trim part for a vehicle consisting of a porous fibrous layer comprising fibers and thermoplastic binder, and an air permeable foil laminated together characterised in that the fibers comprise conjugate frizzy fibers made of at least two sides with a difference between the two sides inducing an intrinsic permanent frizzy or curved shape in a random 3 dimensional form, and wherein the air permeable foil has an airflow resistance that is between 30-75% of the total airflow resistance of the trim part.
A lateral flow assay device, comprising: a conjugate pad configured to receive a quantity of fluid after a start of a test, wherein the conjugate pad is configured to move the fluid by capillary action; a membrane comprising a test line for determining whether the fluid comprises a target analyte, wherein the membrane is configured to move the fluid by capillary action; a shaft that is movable between a first position and a second position, the first position allowing the conjugate pad and the membrane to have no contact with each other, and the second position making the conjugate pad and the membrane to contact each other, wherein the shaft is configured to stay in the first position before the start of the test; and a processor configured to: receive a signal indicating the start of the test; and generate a plurality of signals causing the shaft to move a plurality of times between the first and second positions to control an amount of time that the fluid travels across the membrane. a conjugate pad configured to receive a quantity of fluid after a start of a test, wherein the conjugate pad is configured to move the fluid by capillary action; a membrane comprising a test line for determining whether the fluid comprises a target analyte, wherein the membrane is configured to move the fluid by capillary action; a shaft that is movable between a first position and a second position, the first position allowing the conjugate pad and the membrane to have no contact with each other, and the second position making the conjugate pad and the membrane to contact each other, wherein the shaft is configured to stay in the first position before the start of the test; and a processor configured to: receive a signal indicating the start of the test; and generate a plurality of signals causing the shaft to move a plurality of times between the first and second positions to control an amount of time that the fluid travels across the membrane. receive a signal indicating the start of the test; and generate a plurality of signals causing the shaft to move a plurality of times between the first and second positions to control an amount of time that the fluid travels across the membrane.
Method for producing a barrier layer in a polymer film comprising the steps of: A) providing a carrier body comprising the polymer film which is made from at least one polymer, the polymer film forming a barrier interface of the carrier body, B) drying the barrier interface, C) exposing the barrier interface to one reagent gas, or to a plurality of reagent gases which do not chemically react with each other, so that the at least one reagent gas chemically reacts with the at least one polymer at least inside the polymer film in at least one chemical reaction and so forming the barrier layer, wherein inside the polymer film in step C) means that the at least one reagent gas chemically reacts with the at least one polymer in a depth of the polymer film of at least 10 nm, and D) removing at least one product gas of said at least one chemical reaction. A) providing a carrier body comprising the polymer film which is made from at least one polymer, the polymer film forming a barrier interface of the carrier body, B) drying the barrier interface, C) exposing the barrier interface to one reagent gas, or to a plurality of reagent gases which do not chemically react with each other, so that the at least one reagent gas chemically reacts with the at least one polymer at least inside the polymer film in at least one chemical reaction and so forming the barrier layer, wherein inside the polymer film in step C) means that the at least one reagent gas chemically reacts with the at least one polymer in a depth of the polymer film of at least 10 nm, and D) removing at least one product gas of said at least one chemical reaction.
A biopsy device including a housing and a biopsy needle extending from the housing, the biopsy needle including an outer cutting needle and an inner sample needle with a tissue compartment for receiving a tissue sample, the outer cutting needle surrounding the inner sample needle, the outer cutting needle and the inner sample needle being arranged slidingly in relation to each other along their longitudinal direction, the outer cutting needle having a cutting end distant from the housing, the biopsy device being adapted to, during each sampling operation whereby a tissue sample is collected in the tissue compartment of the inner sample needle, displace the outer cutting needle and the inner sample needle at least between an open position of the tissue compartment in which the tissue compartment extends beyond the cutting end of the outer cutting needle and a closed position of the tissue compartment in which the outer cutting needle covers the tissue compartment, the biopsy device including a vacuum source for providing a pressure decrease in the tissue compartment of the inner sample needle via a vacuum channel arranged longitudinally in the biopsy needle, and the biopsy device including a valve system adapted to provide a pressure decrease in the tissue compartment at each sampling operation, characterised in that the vacuum source has the form of a number of initially pre-evacuated vacuum containers (9 1, 9 2, 9 3, 9 4, 9 5, 9 6), in that the biopsy device is adapted to, by means of the initial vacuum of the number of initially pre-evacuated vacuum containers, provide a pressure decrease in the tissue compartment of the inner sample needle at each one of a limited number of consecutive sampling operations, and in that the valve system is adapted to connect each initially pre-evacuated vacuum container separately and in succession, corresponding to the respective consecutive sampling operations, with the vacuum channel in the biopsy needle.
A method comprising: at a device including non-transitory memory and one or more processors coupled with the non-transitory memory: obtaining locality data from at least one sensor in a physical setting, the locality data characterizing objects and relative spatial information of a volumetric region in the physical setting; synthesizing a mesh map for the volumetric region based on the locality data; characterized by: selecting synthesized reality content that satisfies a dimensional variance threshold relative to one or more portions of the mesh map; compositing at least a portion of the SR content with the mesh map in order to generate composite SR content; adapting the composite SR content to fit the one or more portions of the mesh map; and presenting the adapted composite SR content. obtaining locality data from at least one sensor in a physical setting, the locality data characterizing objects and relative spatial information of a volumetric region in the physical setting; synthesizing a mesh map for the volumetric region based on the locality data; characterized by: selecting synthesized reality content that satisfies a dimensional variance threshold relative to one or more portions of the mesh map; compositing at least a portion of the SR content with the mesh map in order to generate composite SR content; adapting the composite SR content to fit the one or more portions of the mesh map; and presenting the adapted composite SR content. selecting synthesized reality content that satisfies a dimensional variance threshold relative to one or more portions of the mesh map; compositing at least a portion of the SR content with the mesh map in order to generate composite SR content; adapting the composite SR content to fit the one or more portions of the mesh map; and presenting the adapted composite SR content.
Method for operating a network node in a millimeter network, mmW network, the method comprising: receiving from a user equipment,UE, a relay Automatic Repeat Request,ARQ, data packet comprising header information indicating a source ID, a destination ID, a flow ID and a UE ID, wherein said source ID indicates a source L2 address and said destination ID a destination L2 address, and wherein in uplink, UL, said source L2 address is address of a serving Access Node, AN, or Aggregation Node, AGN, of the UE and said destination L2 address is address of Local Gateway, LGW, or Network Controller, NC; and transmitting, to a preceding network node, an ARQ response message indicating the flow ID and the UE ID and ACK/NACK pertaining to the received relay ARQ data packet, wherein the flow ID is associated with a bearer, wherein the preceding network node is a source network node or said serving AN and the network node is a destination network node, wherein in downlink, DL, said source L2 address is address of said NC or LGW and said destination L2 address is address of said serving AN or AGN of the UE. receiving from a user equipment,UE, a relay Automatic Repeat Request,ARQ, data packet comprising header information indicating a source ID, a destination ID, a flow ID and a UE ID, wherein said source ID indicates a source L2 address and said destination ID a destination L2 address, and wherein in uplink, UL, said source L2 address is address of a serving Access Node, AN, or Aggregation Node, AGN, of the UE and said destination L2 address is address of Local Gateway, LGW, or Network Controller, NC; and transmitting, to a preceding network node, an ARQ response message indicating the flow ID and the UE ID and ACK/NACK pertaining to the received relay ARQ data packet, wherein the flow ID is associated with a bearer, wherein the preceding network node is a source network node or said serving AN and the network node is a destination network node, wherein in downlink, DL, said source L2 address is address of said NC or LGW and said destination L2 address is address of said serving AN or AGN of the UE.
A wall panel (10, 100) comprising: a poured substrate selected from the group consisting of polyurethane and plastic; a middle layer (30, 130) having a first side which is attached to a rear surface of the poured substrate; an insulation layer (20, 120) having a first side chemically bonded to a second side of the middle layer (30, 130); and a plurality of aesthetic elements embedded in and bonded to the poured substrate; wherein the aesthetic elements are selected from the group consisting of brick, ceramic tile, porcelain tile, natural stone, engineered stone, wood, ceramic, plastic, and vinyl; wherein the insulation layer (20, 120) comprises a two part rigid urethane pour foam wherein a finished surface of the aesthetic elements extends above a top surface of the poured substrate; and wherein each one of the aesthetic elements is in spaced-apart relation to another one of the aesthetic elements. a poured substrate selected from the group consisting of polyurethane and plastic; a middle layer (30, 130) having a first side which is attached to a rear surface of the poured substrate; an insulation layer (20, 120) having a first side chemically bonded to a second side of the middle layer (30, 130); and a plurality of aesthetic elements embedded in and bonded to the poured substrate; wherein the aesthetic elements are selected from the group consisting of brick, ceramic tile, porcelain tile, natural stone, engineered stone, wood, ceramic, plastic, and vinyl; wherein the insulation layer (20, 120) comprises a two part rigid urethane pour foam wherein a finished surface of the aesthetic elements extends above a top surface of the poured substrate; and wherein each one of the aesthetic elements is in spaced-apart relation to another one of the aesthetic elements.
A particle analyzing apparatus comprising: a capillary tube of predetermined internal cross-section selected such as to singulate particles flowing therethrough, a tee, a pump connected to the first arm of the tee, a capillary conduit extending from the second arm of the tee and connected to one end of the capillary tube, a light source for illuminating a predetermined analyzing volume of fluid in the capillary tube, at least one detector for detecting fluorescent light emitted by particles flowing through the volume in response to the illumination, and a detector for detecting particles which flow through the analyzing volume; wherein the apparatus is characterized by: a discharge conduit and a valve disposed in the discharge conduit and connected to the third arm of the tee, whereby when the valve is closed, the pump is connected such that, in use, fluid is drawn from the other end of the capillary tube through the capillary tube, and when the valve is opened the pump is connected such that in use, it discharges fluid sample previously drawn through the capillary tube; wherein the discharge conduit has a diameter at least 10 times the diameter of the internal cross-section of the capillary tube. a capillary tube of predetermined internal cross-section selected such as to singulate particles flowing therethrough, a tee, a pump connected to the first arm of the tee, a capillary conduit extending from the second arm of the tee and connected to one end of the capillary tube, a light source for illuminating a predetermined analyzing volume of fluid in the capillary tube, at least one detector for detecting fluorescent light emitted by particles flowing through the volume in response to the illumination, and a detector for detecting particles which flow through the analyzing volume; wherein the apparatus is characterized by: a discharge conduit and a valve disposed in the discharge conduit and connected to the third arm of the tee, whereby when the valve is closed, the pump is connected such that, in use, fluid is drawn from the other end of the capillary tube through the capillary tube, and when the valve is opened the pump is connected such that in use, it discharges fluid sample previously drawn through the capillary tube; wherein the discharge conduit has a diameter at least 10 times the diameter of the internal cross-section of the capillary tube. a discharge conduit and a valve disposed in the discharge conduit and connected to the third arm of the tee, whereby when the valve is closed, the pump is connected such that, in use, fluid is drawn from the other end of the capillary tube through the capillary tube, and when the valve is opened the pump is connected such that in use, it discharges fluid sample previously drawn through the capillary tube; wherein the discharge conduit has a diameter at least 10 times the diameter of the internal cross-section of the capillary tube.
A pushing device for pushing a sliding door (12; 13; 14) in a pushing direction relative to a furniture body, having a housing and having an entrainer that can be moved relative to this housing, wherein the entrainer is part of a piston unit which is guided in the housing and which is loaded against the pushing direction by means of a spring, and wherein the spring can be loaded by means of a Bowden cable having a shape-memory element, characterized in that the entrainer has a stop surface pointing in the pushing direction, the Bowden cable traverses the piston unit, the spring and the housing, and the Bowden cable has a piston-unit-side end arranged outside of the piston unit and a housing-side end movable relative to this piston-unit-side end and arranged outside of the housing, which ends can be connected to two poles of a current source.
A laminate comprising: a crystal substrate; a middle layer formed on a main surface of the crystal substrate, the middle layer comprising a mixture of an amorphous region in an amorphous phase comprising a first metal oxide and a crystal region in a crystal phase having a corundum structure made of 50% or more of the first metal oxide; and a crystal layer formed on the middle layer and having a corundum structure made of 50% or more of a second metal oxide, wherein the middle layer further comprises silicon. a crystal substrate; a middle layer formed on a main surface of the crystal substrate, the middle layer comprising a mixture of an amorphous region in an amorphous phase comprising a first metal oxide and a crystal region in a crystal phase having a corundum structure made of 50% or more of the first metal oxide; and a crystal layer formed on the middle layer and having a corundum structure made of 50% or more of a second metal oxide, wherein the middle layer further comprises silicon.