mhurhangee/ep-ind-claims huggingface dataset:
Hinge assembly for positioning components, comprising a joint ball which is connectable via fastening means to a first component, and a clamping device fixable to the joint ball, said clamping device being connectable via fastening means to a second component, wherein the clamping device comprises a clamping body which is compressible via clamping means (5, 6, 12), on which a receptacle is formed in which at least one shell (7, 7') is arranged with a ball socket for receiving a portion of the joint ball, which can be pressed against the joint ball via the clamping body, characterized in that the clamping body has a substantially cylindrical receptacle for at least two shells (7, 7') with a ball socket, which engage around the joint ball, and the shells (7, 7') have an outer peripheral surface which is substantially cylindrically formed.
An oral care appliance utilizing a non-linear resonant system, comprising: a longitudinal shaft; a head located at a first end of the longitudinal shaft, moving with an oscillatory, rotational motion about a longitudinal axis of the longitudinal shaft; and a handle located at a second end of the longitudinal shaft opposite the first end, the handle comprising a motor housed within the handle and operating at a substantially constant frequency and a substantially constant voltage, wherein: when the head is outside of the user's mouth and no mass (m) is applied to the head, the head has a first moment of inertia and the motor generates a first amplitude for the back and forth oscillation of the head; and when the head is pressed against one or more of teeth, gums, cheek, oral mucosa, mouth soft tissue or saliva inside a user's mouth, mass (m) is applied to the head, such that the head has a second moment of inertia and the motor generates a second amplitude for the back and forth oscillation of the head, wherein the second amplitude is greater than the first amplitude. a longitudinal shaft; a head located at a first end of the longitudinal shaft, moving with an oscillatory, rotational motion about a longitudinal axis of the longitudinal shaft; and a handle located at a second end of the longitudinal shaft opposite the first end, the handle comprising a motor housed within the handle and operating at a substantially constant frequency and a substantially constant voltage, wherein: when the head is outside of the user's mouth and no mass (m) is applied to the head, the head has a first moment of inertia and the motor generates a first amplitude for the back and forth oscillation of the head; and when the head is pressed against one or more of teeth, gums, cheek, oral mucosa, mouth soft tissue or saliva inside a user's mouth, mass (m) is applied to the head, such that the head has a second moment of inertia and the motor generates a second amplitude for the back and forth oscillation of the head, wherein the second amplitude is greater than the first amplitude. when the head is outside of the user's mouth and no mass (m) is applied to the head, the head has a first moment of inertia and the motor generates a first amplitude for the back and forth oscillation of the head; and when the head is pressed against one or more of teeth, gums, cheek, oral mucosa, mouth soft tissue or saliva inside a user's mouth, mass (m) is applied to the head, such that the head has a second moment of inertia and the motor generates a second amplitude for the back and forth oscillation of the head, wherein the second amplitude is greater than the first amplitude.
Power converter module, comprising: a DC input terminal configured to receive an input voltage from a DC source; an intermediate circuit coupled to the DC input terminal; a DC output terminal configured to provide an output direct voltage; an AC output terminal configured to provide an output alternating voltage; a DC converter coupled between the intermediate circuit and the DC output terminal in order to draw an input voltage from the intermediate circuit; an inverter coupled between the intermediate circuit and the AC output terminal in order to draw an input voltage from the intermediate circuit; and a controller coupled to the DC converter and to the inverter, wherein the controller is configured to control the input voltage of the inverter and the input voltage of the DC converter to a maximum power drain from the DC source, characterized in that the intermediate circuit is coupled directly to the DC input terminal; the controller has a first maximum power point regulator allocated to the inverter and controlling the input voltage of the inverter, and the controller has a second maximum power point regulator allocated to the DC converter and controlling the input voltage of the DC converter; and the control dynamic of the second maximum power point regulator is greater than the control dynamic of the first maximum power point tracking. a DC input terminal configured to receive an input voltage from a DC source; an intermediate circuit coupled to the DC input terminal; a DC output terminal configured to provide an output direct voltage; an AC output terminal configured to provide an output alternating voltage; a DC converter coupled between the intermediate circuit and the DC output terminal in order to draw an input voltage from the intermediate circuit; an inverter coupled between the intermediate circuit and the AC output terminal in order to draw an input voltage from the intermediate circuit; and a controller coupled to the DC converter and to the inverter, wherein the controller is configured to control the input voltage of the inverter and the input voltage of the DC converter to a maximum power drain from the DC source, characterized in that the intermediate circuit is coupled directly to the DC input terminal; the controller has a first maximum power point regulator allocated to the inverter and controlling the input voltage of the inverter, and the controller has a second maximum power point regulator allocated to the DC converter and controlling the input voltage of the DC converter; and the control dynamic of the second maximum power point regulator is greater than the control dynamic of the first maximum power point tracking.
A solution for use in dialysis, containing at least one polysaccharide as an osmotic agent, wherein the polysaccharide is a degraded starch having an average molecular weight between 2000 and 30,000 g/mol, whose glucose units are at least in part esterified with maleic acid.
A measuring device for monitoring an electrical device (10, 13), which comprises a housing (101, 131) filled or fillable with insulation oil (11, 11'), the measuring device comprising - a piezo element, which can be arranged in the housing (101, 131) on a level with a minimum filling level (19, 19') of the insulation oil (11, 11'); and - an evaluation device, which is connected to the piezo element; wherein - the evaluation device is formed such that • it can induce an oscillation of the piezo element; and • it can determine the measurement value of a measurand of the oscillation, in particular the half-life of the amplitude of the oscillation, with the measurand being dependent on the filling level; wherein - for the purpose of acoustically monitoring the electrical device (10, 13), the evaluation device is formed such that • it detects the oscillation of the piezo element at least during a part of the time interval in which the evaluation device is not inducing oscillation of the piezo element. - a piezo element, which can be arranged in the housing (101, 131) on a level with a minimum filling level (19, 19') of the insulation oil (11, 11'); and - an evaluation device, which is connected to the piezo element; - the evaluation device is formed such that • it can induce an oscillation of the piezo element; and • it can determine the measurement value of a measurand of the oscillation, in particular the half-life of the amplitude of the oscillation, with the measurand being dependent on the filling level; • it can induce an oscillation of the piezo element; and • it can determine the measurement value of a measurand of the oscillation, in particular the half-life of the amplitude of the oscillation, with the measurand being dependent on the filling level; - for the purpose of acoustically monitoring the electrical device (10, 13), the evaluation device is formed such that • it detects the oscillation of the piezo element at least during a part of the time interval in which the evaluation device is not inducing oscillation of the piezo element. • it detects the oscillation of the piezo element at least during a part of the time interval in which the evaluation device is not inducing oscillation of the piezo element.
Method for testing a tap changer of a transformer (5; 6), wherein the tap changer is configured to change a transmission ratio of the transformer (5; 6), wherein the method comprises the following steps: generating a test signal which is supplied to a winding (1-3; 10) of the transformer (5; 6) and to the tap changer, repeatedly actuating the tap changer in order to change the transmission ratio with each actuation, detecting a curve of an electrical measurement variable (I; I 1; I 2) of the transformer (5; 6) over time (t) respectively during the step of actuating the tap changer depending on the test signal, and automatically illustrating the curves (41, 42) of the electrical measurement variable (I; I 1; I 2) detected during the repeatedly actuating of the tap changer in a temporally-superimposed manner. generating a test signal which is supplied to a winding (1-3; 10) of the transformer (5; 6) and to the tap changer, repeatedly actuating the tap changer in order to change the transmission ratio with each actuation, detecting a curve of an electrical measurement variable (I; I 1; I 2) of the transformer (5; 6) over time (t) respectively during the step of actuating the tap changer depending on the test signal, and automatically illustrating the curves (41, 42) of the electrical measurement variable (I; I 1; I 2) detected during the repeatedly actuating of the tap changer in a temporally-superimposed manner.
A backlight unit comprising: a light source; a light guide guiding light from the light source; an optical sheet formed in a substantially rectangular shape, having a peripheral portion and disposed on the light guide; an inner frame having a side wall defining an opening housing the optical sheet; and a lower frame housing the above; characterized in that: the peripheral portion of the optical sheet has a first projection at each of a pair of longitudinal sides of the optical sheet; and the side wall of the inner frame defines a projection insertion region to house the first projection; the peripheral portion of the optical sheet further has a second projection at each of the pair of longitudinal sides of the optical sheet and at other position than that of the first projection such that each longitudinal side has a projection group including a first projection 102a and a second projection 102b wherein the second projection is disposed outside of the projection insertion region in the opening of the inner frame and is spaced away from the first projection; and the positions of the projection groups (102a, 102b) provided at the peripheral portion of the pair of opposite sides differ from each other in a longitudinal direction, the position of the first projection 102a on one longitudinal side is asymmetric with that on the other longitudinal side, so that the distance to each end of the longitudinal side is different at both of the longitudinal sides. a light source; a light guide guiding light from the light source; an optical sheet formed in a substantially rectangular shape, having a peripheral portion and disposed on the light guide; an inner frame having a side wall defining an opening housing the optical sheet; and a lower frame housing the above; the peripheral portion of the optical sheet has a first projection at each of a pair of longitudinal sides of the optical sheet; and the side wall of the inner frame defines a projection insertion region to house the first projection; the peripheral portion of the optical sheet further has a second projection at each of the pair of longitudinal sides of the optical sheet and at other position than that of the first projection such that each longitudinal side has a projection group including a first projection 102a and a second projection 102b wherein the second projection is disposed outside of the projection insertion region in the opening of the inner frame and is spaced away from the first projection; and the positions of the projection groups (102a, 102b) provided at the peripheral portion of the pair of opposite sides differ from each other in a longitudinal direction, the position of the first projection 102a on one longitudinal side is asymmetric with that on the other longitudinal side, so that the distance to each end of the longitudinal side is different at both of the longitudinal sides.
A tool for retrieving contents from a hole comprising: a cylindrical body having: a larger internal diameter than the external diameter of said contents; and a smaller external diameter than the internal diameter of said hole; a plurality of inflatable air wedges arranged about the inside of said cylindrical body, each of said plurality of inflatable air wedges being operable to be inflated to grip the periphery of said contents; a source of pressurized air to controllably inflate said plurality of inflatable air wedges; and a vertical lifting assembly fixed to the top of said cylindrical body for lowering said cylindrical body into said hole, and raising it out of said hole, characterized in that each of the plurality of inflatable air wedges have a first end fixed to an inside wall of said cylindrical body at a top region of said cylindrical body and a second end fixed to the inside wall of said cylindrical body at a bottom region. a cylindrical body having: a larger internal diameter than the external diameter of said contents; and a smaller external diameter than the internal diameter of said hole; a larger internal diameter than the external diameter of said contents; and a smaller external diameter than the internal diameter of said hole; a plurality of inflatable air wedges arranged about the inside of said cylindrical body, each of said plurality of inflatable air wedges being operable to be inflated to grip the periphery of said contents; a source of pressurized air to controllably inflate said plurality of inflatable air wedges; and a vertical lifting assembly fixed to the top of said cylindrical body for lowering said cylindrical body into said hole, and raising it out of said hole, characterized in that each of the plurality of inflatable air wedges have a first end fixed to an inside wall of said cylindrical body at a top region of said cylindrical body and a second end fixed to the inside wall of said cylindrical body at a bottom region.
Plasma stamp having at least one cavity (5a, 5b, 5c) which has at least one opening, in front of which a substrate to be treated can be arranged, a dielectric base arranged opposite the opening, and, as a first electrode, a wall arranged between the opening and the base, said wall being electrically conductive at least in some regions, and also having a second electrode which is arranged on a side of the base facing away from the cavity (5a, 5b, 5c).
A drum washing machine, comprising: an outer tank, configured in a shell; a drum, configured in the outer tank and capable of rotating by using a horizontal axis or an inclination axis inclining relative to a horizontal direction as a center; a rotating body, configured at a rear part of the drum and provided with a protruding part in contact with washings on a surface of the rotating body; a driving part, capable of operating in a first driving form and a second driving form, wherein the first driving form is a driving form that enables the drum and the rotating body to rotate at different rotating speeds, and the second driving form is a driving form that enables the drum and the rotating body to integrally rotate at a same rotating speed; and a control part, wherein the control part enables the driving part to operate in the first driving form, so that the drum accelerates to rotate to an attaching speed at which washings can be attached to an inner circumferential surface of the drum, and characterized in that the control part detects load quantity of washings in the drum based on a rotating load applied to the drum and the rotating body that rotates relative to the drum when the drum accelerates to rotate to the attaching speed. an outer tank, configured in a shell; a drum, configured in the outer tank and capable of rotating by using a horizontal axis or an inclination axis inclining relative to a horizontal direction as a center; a rotating body, configured at a rear part of the drum and provided with a protruding part in contact with washings on a surface of the rotating body; a driving part, capable of operating in a first driving form and a second driving form, wherein the first driving form is a driving form that enables the drum and the rotating body to rotate at different rotating speeds, and the second driving form is a driving form that enables the drum and the rotating body to integrally rotate at a same rotating speed; and a control part, wherein the control part enables the driving part to operate in the first driving form, so that the drum accelerates to rotate to an attaching speed at which washings can be attached to an inner circumferential surface of the drum, and characterized in that the control part detects load quantity of washings in the drum based on a rotating load applied to the drum and the rotating body that rotates relative to the drum when the drum accelerates to rotate to the attaching speed.
Rope of a lifting device, more particularly of a passenger transport elevator and/or freight transport elevator, which rope comprises an unbroken load-bearing part, the cross-section of the load-bearing part being essentially of rectangular shape, and the width of the cross-section is greater than the thickness and which load-bearing part comprises glass fiber reinforcements and/or aramid fiber reinforcements and/or carbon fiber reinforcements and/or polybenzoxazole fiber reinforcements and/or polyethylene fiber reinforcements and/or nylon fiber reinforcements in a polymer matrix material, whereby one or more long sides of the cross-section of the load-bearing part comprise symmetrically or asymmetrically in the longitudinal direction of the rope one or more grooves, whereby, the grooves divide the load-bearing part into smaller parts (P1, P2,..., PM), characterized in the rope further comprising a coating around the unbroken load-bearing part and the modulus of elasticity of the matrix material of the load-bearing part of the rope being over 1.5 GPa.
An actinic ray-sensitive or radiation-sensitive resin composition comprising: a resin including a repeating unit (a) represented by Formula (I-1) and a repeating unit (b) having a group in which a protective group including an aliphatic monocyclic ring leaves due to an action of an acid to generate a polar group; and a compound that generates an acid due to irradiation with an actinic ray or radiation, in the formula, R 11 and R 12 each independently represent a hydrogen atom or an alkyl group, R 13 represents a hydrogen atom or an alkyl group, or is a single bond or an alkylene group, and is bonded to L or Ar in the formula to form a ring, L represents a single bond or a divalent linking group, Ar represents an aromatic ring, and n represents an integer of 2 or more. a resin including a repeating unit (a) represented by Formula (I-1) and a repeating unit (b) having a group in which a protective group including an aliphatic monocyclic ring leaves due to an action of an acid to generate a polar group; and a compound that generates an acid due to irradiation with an actinic ray or radiation, in the formula, R 11 and R 12 each independently represent a hydrogen atom or an alkyl group, R 13 represents a hydrogen atom or an alkyl group, or is a single bond or an alkylene group, and is bonded to L or Ar in the formula to form a ring, L represents a single bond or a divalent linking group, Ar represents an aromatic ring, and n represents an integer of 2 or more. R 11 and R 12 each independently represent a hydrogen atom or an alkyl group, R 13 represents a hydrogen atom or an alkyl group, or is a single bond or an alkylene group, and is bonded to L or Ar in the formula to form a ring, L represents a single bond or a divalent linking group, Ar represents an aromatic ring, and n represents an integer of 2 or more.
A computer-implemented method of seismic facies identification, comprising: a. receiving (10; 20; 40), at a computer processor, a seismic dataset representative of a subsurface volume of interest; b. performing (12; 24; 48) a machine learning algorithm on the seismic dataset to identify seismic facies and generate a classified seismic image; and c. identifying (16; 28) geologic features based on the classified seismic image, wherein step b comprises: determining local AVA/AVO responses for individual sample points from the seismic dataset; aggregating the local AVA/AVO responses into clusters based on the type of AVA/AVO response; and once the local AVA/AVO responses are clustered, calculating a global statistical AVA/AVO response for each cluster. a. receiving (10; 20; 40), at a computer processor, a seismic dataset representative of a subsurface volume of interest; b. performing (12; 24; 48) a machine learning algorithm on the seismic dataset to identify seismic facies and generate a classified seismic image; and c. identifying (16; 28) geologic features based on the classified seismic image, wherein step b comprises: determining local AVA/AVO responses for individual sample points from the seismic dataset; aggregating the local AVA/AVO responses into clusters based on the type of AVA/AVO response; and once the local AVA/AVO responses are clustered, calculating a global statistical AVA/AVO response for each cluster. determining local AVA/AVO responses for individual sample points from the seismic dataset; aggregating the local AVA/AVO responses into clusters based on the type of AVA/AVO response; and once the local AVA/AVO responses are clustered, calculating a global statistical AVA/AVO response for each cluster.