mhurhangee/patent-ind-claim-en huggingface dataset:
An input apparatus for a computer comprising an outer case having a front face , a top face and opposing side walls (E1, E2), the apparatus comprising at least one control located on the top face (T) of the controller, the controller being shaped to be held in both hands of a user such that the user's index fingers are positioned to operate the at least one control located on the top (T) of the controller; the controller further comprises at least one additional control located on at least one of the opposing side walls (E1, E2) of the controller in a position operable by an intermediate portion of the user's index finger.
A method for producing a resin molded body that includes a thermoplastic resin (A) and cellulose nanofibers (B), wherein the method includes: a step of preparing a main supply material (a1) that includes the thermoplastic resin (A) and the cellulose nanofibers (B), and an auxiliary supply material (a2) which is the product of melting treatment of the main supply material (a1), and a resin composition-forming step of melt mixing the main supply material (a1) and the auxiliary supply material (a2) to obtain a resin composition (b), and a step of molding the resin composition (b) to obtain a resin molded body, wherein the melt mixing is carried out with the blending ratio of the auxiliary supply material (a2) at 5 to 50 mass% with respect to 100 mass% as the total of the main supply material (a1) and the auxiliary supply material (a2); or wherein the TD/MD ratio for molding shrinkage of the resin molded body is 1.05 to 3.0, the TD/MD ratio for molding shrinkage being measured as specified in the description. a step of preparing a main supply material (a1) that includes the thermoplastic resin (A) and the cellulose nanofibers (B), and an auxiliary supply material (a2) which is the product of melting treatment of the main supply material (a1), and a resin composition-forming step of melt mixing the main supply material (a1) and the auxiliary supply material (a2) to obtain a resin composition (b), and a step of molding the resin composition (b) to obtain a resin molded body, wherein the melt mixing is carried out with the blending ratio of the auxiliary supply material (a2) at 5 to 50 mass% with respect to 100 mass% as the total of the main supply material (a1) and the auxiliary supply material (a2); or wherein the TD/MD ratio for molding shrinkage of the resin molded body is 1.05 to 3.0, the TD/MD ratio for molding shrinkage being measured as specified in the description.
Packaging sheet product made of a cold-rolled steel sheet with a thickness of less than 0.6 mm, which has the following composition in terms of weight: - C: 0,001 - 0,06 %, - Si: < 0.03 %, preferably 0.002 to 0.03 %, - Mn: 0.17 - 0.5 %, - P: < 0.03 %, preferably 0.005 to 0.03 %, - S: 0,001 - 0,03 %, - Al: 0.001 - 0.1 %, - N: 0.002 - 0.12 %, preferably 0.004 to 0.07 %, - optional Cr: < 0.1 %, preferably 0.01 - 0.1 %, - optional Ni: < 0.1 %, preferably 0.01 - 0.05 %, - optional Cu: < 0.1 %, preferably 0.002 - 0.05 %, - optional Ti: < 0.01 %, - optional B: < 0.005 %, - optional Nb: < 0.01 %, - optional Mo: < 0.02 %, - optional Sn: < 0,03 %, - Residual iron and unavoidable impurities, wherein the packaging sheet product has a lower yield strength (Sb eL ) of more than 300 MPa and an associated elongation at break (Ab) of more than 10 % under a biaxial deformation in a bulge test according to DIN EN ISO 16808 and in the plastic range between the Lüder strain (Ab e ) and an upper plastic limit elongation of ε max = 0,5·Ab·(Sb eL /Sb m ) a biaxial stress/strain diagram σ B (ε), which can be represented by a function σ B = b·ε n , wherein - σ B is the true biaxial stress in MPa, - ε is the amount of true elongation in the thickness direction in %, - Sb eL is the lower yield point, - Sb m is the absolute strength, - Ab e is the Lüder strain, - b is a proportionality factor and - n is a solidification exponent, and a strengthening of the packaging sheet product in the thickness direction is characterised by a strengthening exponent of n ≥ 0.353 − 5.1 ⋅ Sb / 10 eL 4 MPa . - C: 0,001 - 0,06 %, - Si: < 0.03 %, preferably 0.002 to 0.03 %, - Mn: 0.17 - 0.5 %, - P: < 0.03 %, preferably 0.005 to 0.03 %, - S: 0,001 - 0,03 %, - Al: 0.001 - 0.1 %, - N: 0.002 - 0.12 %, preferably 0.004 to 0.07 %, - optional Cr: < 0.1 %, preferably 0.01 - 0.1 %, - optional Ni: < 0.1 %, preferably 0.01 - 0.05 %, - optional Cu: < 0.1 %, preferably 0.002 - 0.05 %, - optional Ti: < 0.01 %, - optional B: < 0.005 %, - optional Nb: < 0.01 %, - optional Mo: < 0.02 %, - optional Sn: < 0,03 %, - Residual iron and unavoidable impurities, - σ B is the true biaxial stress in MPa, - ε is the amount of true elongation in the thickness direction in %, - Sb eL is the lower yield point, - Sb m is the absolute strength, - Ab e is the Lüder strain, - b is a proportionality factor and - n is a solidification exponent,
A display panel comprising: a display substrate and a plurality of convergent lenses , the display substrate having a plurality of pixel regions (P) and a plurality of interval regions between the pixel regions (P), the plurality of pixel regions (P) are arranged in a plurality of columns, and in any two adjacent columns, an area of a pixel region (P) in one column is larger than an area of a pixel region (P) in the other column; wherein the display substrate comprises a light shielding layer on a non-light exiting side of a plurality of light emitting units in the plurality of pixel regions (P), the light shielding layer having a plurality of light transmitting holes in the plurality of interval regions, and the plurality of convergent lenses are on a side of the light shielding layer toward the plurality of light emitting units and at locations corresponding to the light transmitting holes respectively, and each of the convergent lenses between the two adjacent columns of the pixel regions (P) is a part of an ellipsoid. a display substrate and a plurality of convergent lenses , the display substrate having a plurality of pixel regions (P) and a plurality of interval regions between the pixel regions (P), the plurality of pixel regions (P) are arranged in a plurality of columns, and in any two adjacent columns, an area of a pixel region (P) in one column is larger than an area of a pixel region (P) in the other column; wherein the display substrate comprises a light shielding layer on a non-light exiting side of a plurality of light emitting units in the plurality of pixel regions (P), the light shielding layer having a plurality of light transmitting holes in the plurality of interval regions, and the plurality of convergent lenses are on a side of the light shielding layer toward the plurality of light emitting units and at locations corresponding to the light transmitting holes respectively, and each of the convergent lenses between the two adjacent columns of the pixel regions (P) is a part of an ellipsoid.
A pattern forming method characterized in that a curable organopolysiloxane composition is applied on a substrate using a microdroplet application device wherein the curable organopolysiloxane composition comprises: (A) an alkenyl group-containing organopolysiloxane having a viscosity at 25°C of from 10 to 100,000 mPa·s in an amount of 100 parts by mass, the viscosity at 25°C being the kinematic viscosity of component (A) alone as measured using, for example, a rotational viscometer; (B) an organohydrogenpolysiloxane in an amount such that there are from 0.2 to 5 mol silicon-bonded hydrogen atoms in component (B) per mol of alkenyl groups in component (A); (C) a hydrosilylation reaction catalyst in a catalytic amount; (D) a functional filler with an average particle size of from 0.01 to 10 μm as measured by a laser diffraction/scattering method in an amount of from 2.5 to 20.0 parts by mass; (E) one or more types of adhesion promoter; and (F) a hydrosilylation reaction inhibitor and the curable organopolysiloxane composition is characterized in that the viscosity at a strain rate of 1,000 (1/s) is 2.0 Pa·s or less and the viscosity at a strain rate of 0.1 (1/s) is at least 50.0 times the viscosity at a strain rate of 1,000 (1/s), where viscosity is measured by the method disclosed in the description. (A) an alkenyl group-containing organopolysiloxane having a viscosity at 25°C of from 10 to 100,000 mPa·s in an amount of 100 parts by mass, the viscosity at 25°C being the kinematic viscosity of component (A) alone as measured using, for example, a rotational viscometer; (B) an organohydrogenpolysiloxane in an amount such that there are from 0.2 to 5 mol silicon-bonded hydrogen atoms in component (B) per mol of alkenyl groups in component (A); (C) a hydrosilylation reaction catalyst in a catalytic amount; (D) a functional filler with an average particle size of from 0.01 to 10 μm as measured by a laser diffraction/scattering method in an amount of from 2.5 to 20.0 parts by mass; (E) one or more types of adhesion promoter; and (F) a hydrosilylation reaction inhibitor and
An antibody made against a member of the NME family for use in treating or preventing cancer in a subject, wherein the antibody is generated or selected for its ability to bind to a peptide as defined in any of SEQ ID NOS:141 to 145.
A robot control apparatus for performing a tracking operation along an operation line, comprising: a storage unit in which teaching data is stored; and an accepting unit that accepts a sensing result of a laser sensor , from a robot including a working tool and the laser sensor attached to the working tool and configured to detect a shape of a working target before an operation of the working tool , wherein an angle about a tool axis of the working tool can be adjusted, characterized by further comprising: a control unit being configured to achieve the following: moving the working tool based on the teaching data, correcting the movement of the working tool based on the sensing result, adjusting the angle about the tool axis such that an operation point indicated by the sensing result is at a center of a field of view of the laser sensor , the operation point being a point at which the operation is performed by the working tool , and being a point on the operation line, and, when when adjusting the angle about the tool axis, adjusting the angle within a range up to a preset upper limit, the preset upper limit being regarding an amount of change in the angle in one time of adjustment by the control unit . a storage unit in which teaching data is stored; and an accepting unit that accepts a sensing result of a laser sensor , from a robot including a working tool and the laser sensor attached to the working tool and configured to detect a shape of a working target before an operation of the working tool , wherein an angle about a tool axis of the working tool can be adjusted, characterized by further comprising: a control unit being configured to achieve the following: moving the working tool based on the teaching data, correcting the movement of the working tool based on the sensing result, adjusting the angle about the tool axis such that an operation point indicated by the sensing result is at a center of a field of view of the laser sensor , the operation point being a point at which the operation is performed by the working tool , and being a point on the operation line, and, when when adjusting the angle about the tool axis, adjusting the angle within a range up to a preset upper limit, the preset upper limit being regarding an amount of change in the angle in one time of adjustment by the control unit . a control unit being configured to achieve the following: moving the working tool based on the teaching data, correcting the movement of the working tool based on the sensing result, adjusting the angle about the tool axis such that an operation point indicated by the sensing result is at a center of a field of view of the laser sensor , the operation point being a point at which the operation is performed by the working tool , and being a point on the operation line, and, when when adjusting the angle about the tool axis, adjusting the angle within a range up to a preset upper limit, the preset upper limit being regarding an amount of change in the angle in one time of adjustment by the control unit .
A prosthetic digit comprising: a mount configured to attach to a hand; a proximal segment , a middle segment , and a distal segment , with the proximal segment rotatably attached to the mount at a first pivot, and the middle segment rotatably attached to the proximal and distal segments ; a proximal link rotatably attached to the mount and rotatably attached to the middle segment at a second pivot; a distal link rotatably attached to the proximal link and rotatably attached to the distal segment at a third pivot; and an actuator coupled with the mount and the proximal segment, the actuator comprising a worm wheel configured to cause the proximal segment to rotate about the first pivot, wherein rotation of the proximal segment about the first pivot causes the middle and distal segments to rotate. a mount configured to attach to a hand; a proximal segment , a middle segment , and a distal segment , with the proximal segment rotatably attached to the mount at a first pivot, and the middle segment rotatably attached to the proximal and distal segments ; a proximal link rotatably attached to the mount and rotatably attached to the middle segment at a second pivot; a distal link rotatably attached to the proximal link and rotatably attached to the distal segment at a third pivot; and an actuator coupled with the mount and the proximal segment, the actuator comprising a worm wheel configured to cause the proximal segment to rotate about the first pivot, wherein rotation of the proximal segment about the first pivot causes the middle and distal segments to rotate.
An edible product container for use with a vessel , comprises: a body and an over-cap detachable from the body, the over-cap enables detachable connection of the body to the vessel and covers an entrance to the vessel ; a portion of the body is adapted to be squeezed or displaced to dispense an edible product from a reservoir in the body through a passage through the body; characterised in that a portion of the over-cap that covers the entrance to the vessel comprises a shutter for shutting the passage through the body, the over-cap and a portion of the body which receives and attaches to the over-cap cooperate in such a manner that when the body is detached from the vessel the shutter unblocks the passage through the body while the over-cap is held on the vessel .
A data cable assembly, comprising a body and a first converter , the body comprising a cable and a first connector connected to a first end of the cable ; the first converter comprising a second connector and a third connector that are communicationally connected to each other; wherein the first converter is connected to the first connector through a first flexible connection member ; the junction between the first flexible connection member and the first connector is apart from the first joint of the first connector and/or the junction between the first flexible connection member and the first converter is next to the second connector ; while the second connector in front orientation, the second connector is able to insert into the first joint ; characterized in that shapes of the first connector and the second connector allow the second connector to be inserted into a first joint of the first connector in either front or reverse orientation, and while the second connector is in reversed orientation, the first flexible connection member is twisted, the length of the twisted first flexible connection member is not long enough to ensure the second connector be inserted into the first joint .
A dispenser for dispensing a patient's order of multiple different pharmaceutical products, the dispenser comprising a storage arrangement adapted to store a plurality of pharmaceutical products each contained in an individual unit dose package , a discharge assembly adapted to move selected ones of the unit dose packages from the storage arrangement, and a conveyor adapted to transfer the selected unit dose packages from the discharge assembly, wherein the storage arrangement comprises a first and a second module each located proximate the conveyor , the first module being spaced and positioned upstream from the second module , characterised in that the discharge assembly comprises a first discharge assembly operative to move selected ones of the unit dose packages from the first module while maintaining physical control of each of those selected unit dose packages such as not to permit the unit dose packages to move by gravity, and a second discharge assembly operative to move selected ones of the unit dose packages from the second module while maintaining physical control of each of those selected unit dose packages such as not to permit the unit dose packages to move by gravity, in that the conveyor transfers the selected unit dose packages while maintaining positive physical control of each of the selected unit dose packages such as not to permit the unit dose packages to move by gravity, whereby positive physical control is maintained during movement of the selected unit dose packages from the discharge assembly by the conveyer , and in that the first module is adapted to store pharmaceutical products having a first frequency demand and the second module is adapted to store pharmaceutical products having a second frequency demand different from the first frequency demand.
A control device (U1) for controlling a motor used in an electric automobile having the motor for driving a vehicle wheel , which automobile comprises: • an ECU, which is an electric control unit configured to control the automobile in its entirety; • an inverter device having a power circuit unit including an inverter to convert a direct current power of a battery into an alternating current used in driving the motor , • a motor control unit configured to control at least the power circuit unit in accordance with a control of the ECU, and • a temperature sensor (Sa) provided to detect the temperature Tc of the inverter, • a plurality of threshold values being set up for the temperature Tc detected; and • an inverter restricting unit configured to apply a restriction to an electric current command to the inverter, while electric current restricting conditions different from each other are set up for respective temperature regions sorted out by each threshold value, in dependence on the electric current restricting condition of the temperature region to which the detected temperature Tc belongs, characterized in that, the inverter restricting unit is configured to change a permissible upper limit of the time dependent change dTc/dt of the inverter temperature, in which the temperature Tc is differentiated by time t, in dependence on each sorted temperature region when the time dependent change dTc/dt of the inverter temperature is positive. • an ECU, which is an electric control unit configured to control the automobile in its entirety; • an inverter device having a power circuit unit including an inverter to convert a direct current power of a battery into an alternating current used in driving the motor , • a motor control unit configured to control at least the power circuit unit in accordance with a control of the ECU, and • a temperature sensor (Sa) provided to detect the temperature Tc of the inverter, • a plurality of threshold values being set up for the temperature Tc detected; and • an inverter restricting unit configured to apply a restriction to an electric current command to the inverter, while electric current restricting conditions different from each other are set up for respective temperature regions sorted out by each threshold value, in dependence on the electric current restricting condition of the temperature region to which the detected temperature Tc belongs,
Y-connector for medical lines, comprising a tubular body having a first inlet coaxial with the tubular body and containing a valve device formed by a hollow elastic element sealingly closing said first inlet in an openable manner, an outlet , and a second inlet arranged obliquely to the tubular body and communicating therewith between said first inlet and the outlet , said tubular body is formed with an inner septum for deviating the flow coming from the second inlet towards said elastic element prior to directing it to the outlet , said inner septum extending axially and being provided with a radial end portion connected to the tubular body in proximity of said second inlet so as to define a first chamber open towards the elastic element and closed on the side of the outlet , and a second chamber open towards the elastic element and towards the outlet characterised in that said inner septum is offset relative to the axis of the tubular body such that the first chamber has a radial size greater than that of the second chamber .
Culinary item including: - a structure that has a first and a second face that are opposite one another, and - at least one means for detecting volatile compounds from cooking an item of food connected to a processing device that is able to emit a signal if said volatile compounds are detected by the detection means , said detection means being integrated at least in the first face , the detection means comprising an active material, said active material being able to modify its electric conduction properties in the presence of volatile compounds and being a P or N doped semiconductor or a resistive-type material, characterised in that the first face is coated with a non-stick coating layer and in that the detection means is included in the thickness of the coating. - a structure that has a first and a second face that are opposite one another, and - at least one means for detecting volatile compounds from cooking an item of food connected to a processing device that is able to emit a signal if said volatile compounds are detected by the detection means , said detection means being integrated at least in the first face ,