mhurhangee/patent-ind-claim-en huggingface dataset:
A computing device comprising: a housing ; a liquid cooling system ; a first compartment of the housing that contains processing components ; a second compartment of the housing that contains cooling components of the liquid cooling system ; an airgap in the housing that physically separates and thermally isolates the first compartment and the second compartment , the airgap defined by external surfaces of the housing ; and characterized by comprising: two conduits (620-1, 620-2) of the housing that join the first compartment and the second compartment at opposite sides of the airgap , the two conduits (620-1, 620-2) routing, internal to the housing , tubing (625-1, 625-2) of the liquid cooling system from the first compartment to the second compartment , the tubing (625-1, 625-2) conveying liquid that carries heat from the processing components to the cooling components for dissipation; wherein the airgap is through the housing from a first external surface of the housing to a second external surface of the housing , the airgap defined by opposing airgap-facing sides of the first compartment and the second compartment , and opposing airgap-facing sides of the two conduits (620-1, 620-2). a housing ; a liquid cooling system ; a first compartment of the housing that contains processing components ; a second compartment of the housing that contains cooling components of the liquid cooling system ; an airgap in the housing that physically separates and thermally isolates the first compartment and the second compartment , the airgap defined by external surfaces of the housing ; and characterized by comprising: two conduits (620-1, 620-2) of the housing that join the first compartment and the second compartment at opposite sides of the airgap , the two conduits (620-1, 620-2) routing, internal to the housing , tubing (625-1, 625-2) of the liquid cooling system from the first compartment to the second compartment , the tubing (625-1, 625-2) conveying liquid that carries heat from the processing components to the cooling components for dissipation; wherein the airgap is through the housing from a first external surface of the housing to a second external surface of the housing , the airgap defined by opposing airgap-facing sides of the first compartment and the second compartment , and opposing airgap-facing sides of the two conduits (620-1, 620-2). two conduits (620-1, 620-2) of the housing that join the first compartment and the second compartment at opposite sides of the airgap , the two conduits (620-1, 620-2) routing, internal to the housing , tubing (625-1, 625-2) of the liquid cooling system from the first compartment to the second compartment , the tubing (625-1, 625-2) conveying liquid that carries heat from the processing components to the cooling components for dissipation; wherein the airgap is through the housing from a first external surface of the housing to a second external surface of the housing , the airgap defined by opposing airgap-facing sides of the first compartment and the second compartment , and opposing airgap-facing sides of the two conduits (620-1, 620-2).
An electric power tool comprising: a motor ; a bit mounting portion configured to mount a bit thereon; a body housing the motor therein and including the bit mounting portion ; a handle extended from the body ; a base which is provided for the handle and which is configured such that a battery pack for the electric power tool can be attached by allowing the battery pack to slide on the base in a sliding direction (S); and a bit storage portion configured to store the bit therein; the bit storage portion covering a space left between the base and the battery pack attached to the base , characterized in that the electric power tool is configured such that the bit stored in the bit storage portion is arranged to have its longitudinal axis (G) aligned with the sliding direction (S) in which the battery pack slides on the base . a motor ; a bit mounting portion configured to mount a bit thereon; a body housing the motor therein and including the bit mounting portion ; a handle extended from the body ; a base which is provided for the handle and which is configured such that a battery pack for the electric power tool can be attached by allowing the battery pack to slide on the base in a sliding direction (S); and a bit storage portion configured to store the bit therein; the bit storage portion covering a space left between the base and the battery pack attached to the base ,
An ultrasonic atomization control system , comprising: a current feedback circuit and a voltage feedback circuit , a microcontroller unit , a push-pull circuit , and an oscillator driving circuit ; wherein the push-pull circuit is coupled between the microcontroller unit and the oscillator driving circuit , the current feedback circuit and the voltage feedback circuit are coupled between the oscillator driving circuit and the microcontroller unit ; and the oscillator driving circuit is configured to be connected with a load ; wherein the microcontroller unit is configured to output a pulse width modulation signal with a predetermined frequency and voltage to the push-pull circuit , judge whether or not a current fluctuation fed back by the current feedback circuit is greater than a threshold, and whether or not a voltage fluctuation fed back by the voltage feedback circuit is greater than a threshold, and stop operation of the load if the fluctuation is greater than the threshold. a current feedback circuit and a voltage feedback circuit , a microcontroller unit , a push-pull circuit , and an oscillator driving circuit ; wherein the push-pull circuit is coupled between the microcontroller unit and the oscillator driving circuit , the current feedback circuit and the voltage feedback circuit are coupled between the oscillator driving circuit and the microcontroller unit ; and the oscillator driving circuit is configured to be connected with a load ; wherein the microcontroller unit is configured to output a pulse width modulation signal with a predetermined frequency and voltage to the push-pull circuit , judge whether or not a current fluctuation fed back by the current feedback circuit is greater than a threshold, and whether or not a voltage fluctuation fed back by the voltage feedback circuit is greater than a threshold, and stop operation of the load if the fluctuation is greater than the threshold.
Active arm module for a modular robot arm of an industrial robot , - having a first housing , a heat exchanger , a drive device , and a first connection side having a first connection plate , - wherein the first connection plate for transmitting drive forces and supporting forces is mechanically connectable to a further arm module or a robot base of the robot arm , - wherein the first housing extends along a rotation axis (Ra n ) and delimits an interior space that receives the drive device , - wherein the heat exchanger at least in portions receives the drive device and is thermally coupled to the drive device , - wherein the heat exchanger has at least one heat exchanger fluid duct , - wherein the heat exchanger is configured to exchange heat between the drive device and the fluid , characterized by - a first fluid contact device disposed on the first connection plate , - wherein a fluid by way of the first fluid contact device is able to be exchanged with the further arm module or the robot base , - wherein the heat exchanger fluid duct for exchanging the fluid with the first fluid contact device is able to be filled with the fluid . - having a first housing , a heat exchanger , a drive device , and a first connection side having a first connection plate , - wherein the first connection plate for transmitting drive forces and supporting forces is mechanically connectable to a further arm module or a robot base of the robot arm , - wherein the first housing extends along a rotation axis (Ra n ) and delimits an interior space that receives the drive device , - wherein the heat exchanger at least in portions receives the drive device and is thermally coupled to the drive device , - wherein the heat exchanger has at least one heat exchanger fluid duct , - wherein the heat exchanger is configured to exchange heat between the drive device and the fluid , characterized by - a first fluid contact device disposed on the first connection plate , - wherein a fluid by way of the first fluid contact device is able to be exchanged with the further arm module or the robot base , - wherein the heat exchanger fluid duct for exchanging the fluid with the first fluid contact device is able to be filled with the fluid .
Waveguide arrangement for measuring the speed of a projectile during passage through a weapon barrel arrangement, wherein a main waveguide and at least one auxiliary waveguide are provided, wherein the main waveguide has a cross section suitable for the passage of the projectile , wherein the auxiliary waveguide extends alongside the main waveguide and is connected to the main waveguide by way of an opening , wherein at least one coupler is arranged in the auxiliary waveguide , wherein a signal can be generated by means of a transmitting coupler , wherein the frequency of the signal lies below the cut-off frequency of the auxiliary waveguide and below the cut-off frequency of the complete waveguide consisting of the main waveguide and the auxiliary waveguide , wherein the speed of the projectile located in the main waveguide can be measured at a frequency below the cut-off frequency, wherein the transmitting coupler is arranged at a distance from a muzzle of the weapon barrel arrangement, in order to prevent the signal generated from leaving the weapon barrel arrangement, characterized in that an isolator that is produced from an isolator material is arranged in the auxiliary waveguide , wherein the at least one coupler extends at least partially in the isolator , wherein the coupler is formed as a coaxial conductor with an inner conductor and an outer conductor , wherein the outer conductor is connected in a conducting manner to the auxiliary waveguide , wherein the outer conductor is connected to the auxiliary waveguide from the outside, wherein the inner conductor extends in a receptacle in the isolator , wherein the receptacle extends transversely in relation to the longitudinal direction of the waveguide arrangement , wherein the outer conductor is connected in a conducting manner to the waveguide wall , wherein a free end of the inner conductor is connected in a conducting manner to an opposite waveguide wall and wherein a short circuit between the outer conductor and the inner conductor is produced by way of the conducting waveguide walls or by way of the conducting auxiliary waveguide .
A filter cover configured to be removably fixed to a filter housing adapted to receive a filtering element , the filter cover being formed as a plate of plastics material having a substantially rectangular shape when viewed in plan view, wherein on a first side of the filter cover there is formed at least one outer snap-fit connection element protruding beyond a lateral edge of the filter cover and configured to engage a respective outer formation formed close to an edge of an opening of the filter housing , said at least one outer snap-fit connection element comprising an elastically deformable tab having a coupling hook (5 1c) at one end, and a manually operable release portion at an opposite end, the filter cover being characterized in that on a second side of the filter cover , opposite to the first side , there is formed at least one inner snap-fit connection element protruding from a housing-side face of the filter cover and configured to engage a respective inner formation formed within the filter housing , said at least one inner snap-fit connection element comprising an elastically deformable tab having a round-shaped coupling protrusion at one end. wherein on a first side of the filter cover there is formed at least one outer snap-fit connection element protruding beyond a lateral edge of the filter cover and configured to engage a respective outer formation formed close to an edge of an opening of the filter housing , said at least one outer snap-fit connection element comprising an elastically deformable tab having a coupling hook (5 1c) at one end, and a manually operable release portion at an opposite end, the filter cover being characterized in that on a second side of the filter cover , opposite to the first side , there is formed at least one inner snap-fit connection element protruding from a housing-side face of the filter cover and configured to engage a respective inner formation formed within the filter housing , said at least one inner snap-fit connection element comprising an elastically deformable tab having a round-shaped coupling protrusion at one end.
A device for converting heat into kinetic energy, comprising two surfaces which enclose a cavity , wherein at least one surface , which faces the cavity, is structured asymmetrically in at least one direction tangential to the surface, as well as means for bringing both surfaces to different temperatures, characterized in that , • in the cavity , there is arranged a working liquid consisting of at least one first species of particles, in which at least one second species of particles, which is arranged on the structured surface and/or contained in the working liquid, is excited to a drift movement when a local temperature gradient is applied, and • the structuring of the surface is such that when the different temperatures are applied to the two surfaces in the working liquid, such a local temperature gradient is formed along the tangential direction. • in the cavity , there is arranged a working liquid consisting of at least one first species of particles, in which at least one second species of particles, which is arranged on the structured surface and/or contained in the working liquid, is excited to a drift movement when a local temperature gradient is applied, and • the structuring of the surface is such that when the different temperatures are applied to the two surfaces in the working liquid, such a local temperature gradient is formed along the tangential direction.
A lifting device for lifting, and controlling the horizontal orientation of components , such as wind turbine main components, during installation and/or dismounting of said components, wherein the lifting device comprises: - a crane connection arrangement configured to be connected to one or more lifting lines of a crane arrangement , - a frame arrangement connected to said crane connection arrangement , - a first and a second steering wire guide for guiding steering wires placed on the crane arrangement , and - a component connection arrangement connected to said frame arrangement and configured to be connected directly or indirectly to the component to be lifted, wherein a relative displacement between said frame arrangement and one or both of the first and second steering wire guides is configured to be provided to control the mutual angle (a1) between the steering wires , characterized in that - the first and second steering wire guide are connected to and supported by the frame arrangement . - a crane connection arrangement configured to be connected to one or more lifting lines of a crane arrangement , - a frame arrangement connected to said crane connection arrangement , - a first and a second steering wire guide for guiding steering wires placed on the crane arrangement , and - a component connection arrangement connected to said frame arrangement and configured to be connected directly or indirectly to the component to be lifted,
Motor vehicle door latch, comprising a locking mechanism substantially consisting of a catch and a pawl , further comprising an operating lever chain for emergency opening of the locking mechanism , and also comprising a control member which directly or indirectly blocks the operating lever chain in normal operation and releases it for emergency opening, wherein the control member is equipped with an electric motor having an output element , wherein the control member is arranged inside a latch housing .
Gypsum-Slurry containing a compound with dispersing properties, characterized in that the slurry contains as dispersant a phosphate based polycondensation product as the sole agent with dispersing properties as an aqueous solution and in an amount of 0,01 to 0,5% by weight-% based on the gypsum content, the polycondensation product containing (I) at least one structural unit with an aromatic or heteroaromatic sub-unit and a polyether side chain and (II) at least one phosphated structural unit with an aromatic or heteroaromatic sub-unit, and preferably additionally (III) at least one structural unit with an aromatic or heteroaromatic sub-unit, structural unit (II) and structural unit (III) differing exclusively in that the OP(OH) 2 group of the structural unit (II) is replaced by H in structural unit (III), and structural unit (III) is not the same as structural unit (I). (I) at least one structural unit with an aromatic or heteroaromatic sub-unit and a polyether side chain and (II) at least one phosphated structural unit with an aromatic or heteroaromatic sub-unit, and preferably additionally (III) at least one structural unit with an aromatic or heteroaromatic sub-unit,
A perovskite structure comprising: a first element X, strontium, iron, cobalt, oxygen and tungsten; wherein the first element X is barium and/or lanthanum and wherein the structure comprises a region of single perovskite and a region of double perovskite, which co-exist as a mixture within the perovskite structure; and wherein the molar percentage of tungsten is in the range of 5 - 10%.
Electroconductive polypropylene resin foamed particles produced by foaming electroconductive polypropylene resin particles including an electroconductive polypropylene resin composition containing 11 parts by weight or more and 25 parts by weight or less of an electroconductive carbon black relative to 100 parts by weight of a polypropylene resin, the electroconductive polypropylene resin composition having a melt index of 1.0 g/10 min or more and 4.0 g/10 min or less where the melt index is determined at a load of 5,000 g at 230 ± 0.2°C, wherein the melt index is determined with an MI measurement apparatus described in JIS K7210: 1999, and wherein the electroconductive polypropylene resin particles contain, relative to 100 parts by weight of the polypropylene resin, a bubble size enlarging agent in an amount of 0.01 parts by weight or more and 10 parts by weight or less.
A printer for printing plate-like media, in particular for printing marker cards with markers for marking electrical appliances, wherein the printer has a housing and at least one input station for the marker cards to be printed, a printing station with a printing device and an output station for printed marker cards , wherein the output station has a magazining device which has one or more guide devices so that the output station , with the magazining device , can be drawn from a position pushed into the housing into a position outside the housing and can be pushed back into the housing of the printer , and in that the respective guide device also has its own stacking unit which is pivotably mounted.
A speaker device , comprising: a first housing including: a first top surface comprising a first opening ; a first recessed mounting surface spaced below the first opening; and a first recessed sidewall extending upwardly from the first recessed mounting surface to the first opening to form a first waveguide ; and a first upward-facing driver mounted into the first recessed mounting surface; wherein the first waveguide shapes propagation of acoustic energy generated by the first upward-facing driver to project the acoustic energy out of the speaker device in an upwardly inclined direction, wherein the first waveguide has a curved shape defined by one or more curved segments of the first recessed sidewall, and wherein an end of the first recessed sidewall is tangential to the first top surface. a first top surface comprising a first opening ; a first recessed mounting surface spaced below the first opening; and a first recessed sidewall extending upwardly from the first recessed mounting surface to the first opening to form a first waveguide ; and a first upward-facing driver mounted into the first recessed mounting surface; wherein the first waveguide shapes propagation of acoustic energy generated by the first upward-facing driver to project the acoustic energy out of the speaker device in an upwardly inclined direction, wherein the first waveguide has a curved shape defined by one or more curved segments of the first recessed sidewall, and wherein an end of the first recessed sidewall is tangential to the first top surface.
A method for folding a blank of wrapping material used to make a frame for a rigid packet for smokers' articles; the blank comprising a main panel and a first and a second side panel which are parallel and opposite to each other and connected to the main panel by a first and a second fold line , respectively; the method comprising a step of feeding the blank in a flat configuration and a step of drawing the blank during which the blank is moved through an opening of a respective drawing die to fold at least one of the first and the second side panels along the respective fold line relative to the main panel ; the method entailing using a blank which has a first and a second through slit running along respective portions of the main panel and of the second side panel , the slits delimiting the edges of at least one strip (121; 121a, 121b) which will form a respective supporting element of the frame ; the method being characterized in that the step of drawing the blank is carried out by a plurality of drawing dies supported by a conveyor simultaneously with a step of shaping the strip (121; 121a, 121b) in order to form the respective supporting element by using at least one shaping member which is connected to the respective drawing die and which extends into the opening to define the cross section through which the blank is passed; the shaping member comprising a first and a second contact surface intended to come into contact with, respectively, the first and the second panel (122, 123; 122a, 122b, 123a, 123b) of the strip (121; 121a, 121b); the mutual position of the first and second contact surfaces determining the shape of the supporting element of the frame .