mhurhangee/patent-ind-claim-en huggingface dataset:
Device for labelling containers , comprising a label strip feed unit and at least one vacuum drum unit , wherein the label strip feed unit is designed to feed at least one label strip comprising multiple individual labels (8.1) to the at least one vacuum drum unit , wherein the label strip feed unit comprises at least one first vacuum cylinder (9, 9', 9", 9′′′) rotating about a cylinder vertical axis (ZA), on the outer lateral surface (9.1) of which a partial length of the label strip comes to rest at least over part of its circumference and is held there under the action of a vacuum, and wherein the label strip feed unit comprises at least one cutting device for separating the label strip into individual labels (8.1), wherein the at least one vacuum drum unit is designed to receive the individual labels (8.1) provided from the first vacuum cylinder (9, 9', 9", 9′′′), to hold the received individual labels (8.1) on an outer lateral surface (7.1) of the vacuum drum unit , and to transport them in the conveying direction (F), in each case by application of a vacuum, and wherein at least one first and second vacuum-generating apparatus are provided, wherein the first vacuum-generating apparatus is designed to provide a vacuum at least at the vacuum drum unit and the second vacuum-generating apparatus is designed to provide a vacuum at least at the first vacuum cylinder (9, 9', 9", 9′′′), characterised in that the at least one vacuum cylinder (9, 9', 9", 9′′′) forms at its rotating outer lateral surface (9.1), depending on the angle of rotation, a first vacuum region (VB1), as well as at least one second vacuum region (VB2) separate from the first, and that the first vacuum region (VAK1) is designed for imposing a first negative pressure (P1) and the second vacuum region (VAK2) is designed for imposing a second negative pressure (P2), different from the first negative pressure (P1), and that the first vacuum region (VB1) can be subjected to vacuum with the second vacuum-generating apparatus , and the second vacuum region (VB2) can be subjected to vacuum with a third vacuum-generating device .
A container pack comprising: a first group of containers , a second group of containers , and a substrate selected from the group consisting of paperboard and plastic material, wherein the first group of containers and the second group of containers each comprise at least one individual container , and wherein the at least one individual container of the first group of containers and the at least one individual container of the second group of containers , is bonded by means of at least one spot of hot melt adhesive to opposing sides of the substrate , the substrate being located between the first group of containers and the second group of containers , characterised in that the substrate is perforated such that each spot of the hot melt adhesive on the substrate is enclosed by a perforation line so that when an individual container is removed off the substrate, there is a clean cut of the perforation line . a first group of containers , a second group of containers , and a substrate selected from the group consisting of paperboard and plastic material, wherein the first group of containers and the second group of containers each comprise at least one individual container , and wherein the at least one individual container of the first group of containers and the at least one individual container of the second group of containers , is bonded by means of at least one spot of hot melt adhesive to opposing sides of the substrate , the substrate being located between the first group of containers and the second group of containers , characterised in that the substrate is perforated such that each spot of the hot melt adhesive on the substrate is enclosed by a perforation line so that when an individual container is removed off the substrate, there is a clean cut of the perforation line .
A mold comprising a cavity , the mold being capable of subjecting a resin sheet under reduced pressure suction via a plurality of reduced pressure suction holes thereby shaping the resin sheet to follow a shape of an inner surface of the cavity ; wherein: the inner surface comprises a base surface and a plurality of island-like concave portions provided in the base surface ; and a concave portion reduced pressure suction hole index (C) defined by an in-concave reduced pressure suction hole ratio (B) divided by a concave portion area ratio (A) is 0.5 or lower, wherein the in-concave reduced pressure suction hole ratio (B) is defined by a ratio of number of reduced pressure suction holes that are capable of performing reduced pressure suction existing in the concave portions with respect to a sum of number of reduced pressure suction holes that are capable of performing reduced pressure suction existing in either one of the base surface and the concave portions ; and the concave portion area ratio (A) is defined by a ratio of an area of the concave portions with respect to sum of areas of the base surface and the concave portions ; characterized in that wrinkles are provided on the base surface . the inner surface comprises a base surface and a plurality of island-like concave portions provided in the base surface ; and a concave portion reduced pressure suction hole index (C) defined by an in-concave reduced pressure suction hole ratio (B) divided by a concave portion area ratio (A) is 0.5 or lower, wherein the in-concave reduced pressure suction hole ratio (B) is defined by a ratio of number of reduced pressure suction holes that are capable of performing reduced pressure suction existing in the concave portions with respect to a sum of number of reduced pressure suction holes that are capable of performing reduced pressure suction existing in either one of the base surface and the concave portions ; and the concave portion area ratio (A) is defined by a ratio of an area of the concave portions with respect to sum of areas of the base surface and the concave portions ; characterized in that wrinkles are provided on the base surface .
A management system for a multiplexed communication network (W) of a vehicle, said management system comprising a plurality of computers connected to said communication network (W), and a bidirectional wire link (L) connecting said plurality of computers with each other, said communication network (W) and said plurality of computers having a standby state and an awake state, said plurality of computers comprising a master computer and at least one slave computer said master computer and said at least one slave computer being configured to transmit and receive a message relating to a requested state of the communication network (W) via said bi-directional wire link (L), the state of at least one of the plurality of computers being controlled from said message relating to the requested state so as to control the state of the communication network (W), said communication network (W) being of the Ethernet over optical fibre type, wherein said master computer and said at least one slave computer are respectively configured to transmit and receive, via the communication network (W), a confirmation message relating to said requested state.
A fabricating method of an electrode assembly comprising: forming a radical unit having a four-layered structure obtained by stacking a first electrode , a first separator , a second electrode , and a second separator one by one or a radical unit having an eight-layered structure formed by stacking the first electrode , the first separator , the second electrode , the second separator , the first electrode , the first separator , the second electrode and the second separator one by one; and stacking at least two of said radical units one by one to form a unit stack part , wherein the unit stack part further comprises a second auxiliary unit stacked on a second distal end separator, the second distal end separator being the second separator positioned at an uppermost or a lowermost portion of the unit stack part, when the first electrode being a cathode, and the second electrode being an anode, the second auxiliary unit being formed by stacking from the second distal end separator, the cathode, and when the first electrode being an anode and the second electrode being a cathode, the second auxiliary unit being formed by stacking from the second distal end separator, the anode, the separator and the cathode one by one, wherein the cathode of the second auxiliary unit comprises: a current collector; and an active material coated only on one side facing the radical unit among both sides of the current collector. forming a radical unit having a four-layered structure obtained by stacking a first electrode , a first separator , a second electrode , and a second separator one by one or a radical unit having an eight-layered structure formed by stacking the first electrode , the first separator , the second electrode , the second separator , the first electrode , the first separator , the second electrode and the second separator one by one; and stacking at least two of said radical units one by one to form a unit stack part , wherein the unit stack part further comprises a second auxiliary unit stacked on a second distal end separator, the second distal end separator being the second separator positioned at an uppermost or a lowermost portion of the unit stack part, when the first electrode being a cathode, and the second electrode being an anode, the second auxiliary unit being formed by stacking from the second distal end separator, the cathode, and when the first electrode being an anode and the second electrode being a cathode, the second auxiliary unit being formed by stacking from the second distal end separator, the anode, the separator and the cathode one by one, wherein the cathode of the second auxiliary unit comprises: a current collector; and an active material coated only on one side facing the radical unit among both sides of the current collector. a current collector; and an active material coated only on one side facing the radical unit among both sides of the current collector.
A process for manufacturing a nano aluminum/alumina metal matrix composite, comprising the steps of: a) providing a powder blend of an aluminum powder and boron carbide, the aluminum powder having a natural oxide formation layer and an aluminum oxide content between 0.1 and 4.5 wt.% and a specific surface area of between 0.3 m 2 /g and 5.0 m 2 /g; b) hot working the powder blend, and forming thereby a superfine grained matrix aluminum alloy; and c) simultaneously forming in situ a substantially uniform distribution of nano particles of alumina throughout said alloy by redistributing said aluminum oxide; wherein said alloy has a substantially linear property/temperature profile; wherein the aluminum powder has a particle size of less than 30 μm. a) providing a powder blend of an aluminum powder and boron carbide, the aluminum powder having a natural oxide formation layer and an aluminum oxide content between 0.1 and 4.5 wt.% and a specific surface area of between 0.3 m 2 /g and 5.0 m 2 /g; b) hot working the powder blend, and forming thereby a superfine grained matrix aluminum alloy; and c) simultaneously forming in situ a substantially uniform distribution of nano particles of alumina throughout said alloy by redistributing said aluminum oxide; wherein said alloy has a substantially linear property/temperature profile;
A gastric pressure relief system comprising: a feeding container connected to administration tubing ; relief tubing ; a delivery tube in fluid communication with the administration tubing and the relief tubing ; a multi-way connector having a first arm, a second arm, and a third arm, wherein the first arm is connected to the relief tubing , the second arm is connected to the delivery tube , and the third arm is connected to the administration tubing ; and a collection reservoir in fluid communication with the relief tubing , wherein the collection reservoir is configured to collect reflux fluids from a patient's stomach via the relief tubing and wherein the collection reservoir includes a vent configured to allow gas to pass through in both directions and configured to restrict the flow of liquid through the vent , characterized in that the vent comprises one or more membranes (814a1, 814b1, 814c1, 814d1, 814e1, 814f1) on a top surface of the vent and one or more membranes (814a2, 814b2) on a side surface of the vent . a feeding container connected to administration tubing ; relief tubing ; a delivery tube in fluid communication with the administration tubing and the relief tubing ; a multi-way connector having a first arm, a second arm, and a third arm, wherein the first arm is connected to the relief tubing , the second arm is connected to the delivery tube , and the third arm is connected to the administration tubing ; and the first arm is connected to the relief tubing , the second arm is connected to the delivery tube , and the third arm is connected to the administration tubing ; and a collection reservoir in fluid communication with the relief tubing , wherein the collection reservoir is configured to collect reflux fluids from a patient's stomach via the relief tubing and wherein the collection reservoir includes a vent configured to allow gas to pass through in both directions and configured to restrict the flow of liquid through the vent , characterized in that the vent comprises one or more membranes (814a1, 814b1, 814c1, 814d1, 814e1, 814f1) on a top surface of the vent and one or more membranes (814a2, 814b2) on a side surface of the vent .
Mixing device , in particular for a burner system , which has at least one nozzle and at least one mixing chamber which is fluidically connected to the nozzle , an intermediate chamber being arranged between a nozzle outlet opening of the nozzle and the mixing chamber , the mixing device being provided to combine and/or to mix a first mixing component and a second mixing component, the nozzle being provided to output the first mixing component, characterized by a guide element which is provided to feed the second mixing component to the intermediate chamber and/or the mixing chamber along an axis which is arranged at least substantially perpendicularly with respect to the longitudinal axis of the nozzle , the guide element being of plate-shaped and/or disc-shaped configuration.
Household appliance comprising a steam generator with vaporisation supplied by a reservoir and an accessory for the treatment of laundry, said steam generator being connected to a steam distribution circuit through which the steam produced by the steam generator is conveyed in the direction of said accessory for the treatment of the laundry diffusing steam, said steam distribution circuit comprising an anti-return valve for the pressurisation of a distribution duct connected to said accessory for the treatment of the laundry, said anti-return valve for pressurisation having a calibration pressure adapted in such a way as to allow steam to pass in the direction of said accessory for the treatment of the laundry only when the pressure in the distribution duct is greater than or equal to a predetermined threshold, characterised in that the steam generator is with instantaneous vaporisation and in that said accessory for the treatment of the laundry comprises a manual control valve that makes it possible to interrupt, via control, the diffusion of the steam through said accessory for the treatment of the laundry.
A sludge filter device comprising: i) a main body wherein three ducts are formed, respectively a first duct having a first longitudinal axis (A), a second duct having a second longitudinal axis (B) arranged at 180° relative to said first longitudinal axis (A) of the first duct , a third duct having a third longitudinal axis (C) arranged at 90° relative to said first longitudinal axis (A) of the first duct and relative to said second longitudinal axis (B) of the second duct , said ducts having a same cross section and comprising attachment members configured to be assembled to hydraulic pipes and/or hydraulic appliances; ii) a cup-shaped container removably restrained to said main body ; iii) a filter cartridge housed in said cup-shaped container , that divides a containment volume of the cup-shaped container in a first volume and in a second volume separated by said filter cartridge , wherein said first volume is inside the filter cartridge and said second volume is outside the filter cartridge ; wherein said second duct is in fluid communication with said third duct and with said second volume; wherein a passage , having a fourth longitudinal axis (D) arranged at 90° relative to said first axis (A) of the first duct and relative to said second axis (B) of the second duct , adapted to allow fluid communication between said first duct and said first volume characterized in that said passage has a cross section substantially equal to said cross section of each of the ducts , a flow diverting member is formed in the main body passing where the longitudinal axes (A, B, C) of the three ducts and the longitudinal axis (D) of the passage meet each other, said flow diverting member dividing the inner volume of the main body so as to define inside it two separate flow paths, a first flow path comprising said second duct and said third duct mutually perpendicular to each other, and a second flow path comprising said first duct and the passage in fluid communication with the cup-shaped container . i) a main body wherein three ducts are formed, respectively a first duct having a first longitudinal axis (A), a second duct having a second longitudinal axis (B) arranged at 180° relative to said first longitudinal axis (A) of the first duct , a third duct having a third longitudinal axis (C) arranged at 90° relative to said first longitudinal axis (A) of the first duct and relative to said second longitudinal axis (B) of the second duct , said ducts having a same cross section and comprising attachment members configured to be assembled to hydraulic pipes and/or hydraulic appliances; ii) a cup-shaped container removably restrained to said main body ; iii) a filter cartridge housed in said cup-shaped container , that divides a containment volume of the cup-shaped container in a first volume and in a second volume separated by said filter cartridge , wherein said first volume is inside the filter cartridge and said second volume is outside the filter cartridge ;
Surge arrester comprising a gas-tight discharge chamber that is formed by at least one insulating body and two electrodes , wherein the electrodes each have a pin-shaped free end that extends into the discharge chamber and the free ends are aligned with respect to one another, wherein the electrodes have an electrode spacing (L) with respect to one another and a wall spacing (a) is the spacing between the outer face of the free ends and the adjacent insulating body inner wall , wherein the electrode spacing (L) is equal to twice the wall spacing (a) or is less than twice the wall spacing (a), wherein the electrode spacing (L) is between 8 mm and 16 mm and the wall spacing (a) is between 5 mm and 9 mm, wherein the discharge chamber comprises a gas charge that comprises nitrogen or a gas charge that comprises nitrogen and hydrogen, and wherein at least the insulating body inner wall of the discharge chamber is free of an arcing strip.
A method for producing a single crystal silicon ingot from a silicon melt held within a crucible , the method comprising: adding polycrystalline silicon to the crucible, the crucible being disposed within an ingot puller inner chamber ; heating the polycrystalline silicon to cause a silicon melt to form in the crucible; pulling a single crystal silicon ingot from the silicon melt; providing a source of solid-phase boric acid; producing a boron-containing gas from the solid-phase boric acid; and contacting the boron-containing gas with a surface of the melt to cause boron to enter the melt as a dopant while pulling the single crystal silicon ingot from the melt. adding polycrystalline silicon to the crucible, the crucible being disposed within an ingot puller inner chamber ; heating the polycrystalline silicon to cause a silicon melt to form in the crucible; pulling a single crystal silicon ingot from the silicon melt; providing a source of solid-phase boric acid; producing a boron-containing gas from the solid-phase boric acid; and contacting the boron-containing gas with a surface of the melt to cause boron to enter the melt as a dopant while pulling the single crystal silicon ingot from the melt.
Sensor system for determining a thickness of a first zone (Z1) and a second zone (Z2) of a material body , e.g. a container such as a bottle, comprising at least one sensor; wherein the at least one sensor (101; 201A, 201B) is operable on the first zone of the body, to determine, at a first accuracy, first data relating to a first parameter pertaining to thickness (W1) of the first zone; wherein the at least one sensor is operable on the second zone of the body, to determine, at a second accuracy, second data relating to a second parameter pertaining to thickness (W2) of the second zone, the second accuracy being higher than the first accuracy; and wherein the sensor system is configured for providing the first data and the second data to a processor , the processor being configured for taking into account the first data as well as the second data to determine the thickness of the body over the first zone at an accuracy higher than the first accuracy; wherein the at least one sensor comprises at least one IR absorption sensor and at least one interferometry sensor; wherein the at least one IR absorption sensor is operable on the first zone of the body, to determine, at the first accuracy, the first data; and wherein the at least one interferometry sensor is operable on the second zone of the body to determine, at the second accuracy, the second data. wherein the at least one sensor (101; 201A, 201B) is operable on the first zone of the body, to determine, at a first accuracy, first data relating to a first parameter pertaining to thickness (W1) of the first zone; wherein the at least one sensor is operable on the second zone of the body, to determine, at a second accuracy, second data relating to a second parameter pertaining to thickness (W2) of the second zone, the second accuracy being higher than the first accuracy; and wherein the sensor system is configured for providing the first data and the second data to a processor , the processor being configured for taking into account the first data as well as the second data to determine the thickness of the body over the first zone at an accuracy higher than the first accuracy; wherein the at least one sensor comprises at least one IR absorption sensor and at least one interferometry sensor; wherein the at least one IR absorption sensor is operable on the first zone of the body, to determine, at the first accuracy, the first data; and wherein the at least one interferometry sensor is operable on the second zone of the body to determine, at the second accuracy, the second data. wherein the at least one IR absorption sensor is operable on the first zone of the body, to determine, at the first accuracy, the first data; and wherein the at least one interferometry sensor is operable on the second zone of the body to determine, at the second accuracy, the second data.