mhurhangee/ep-ind-claims huggingface dataset:
An internal combustion engine comprising: a variable valve timing mechanism configured by winding a timing chain thereon; intake and exhaust hydraulic control valves each controlling a hydraulic oil supplied to the variable valve timing mechanism; and a chain casing fixed to a cylinder head, to cover the timing chain and the variable valve timing mechanism, wherein a bulging portion bulging in a crank shaft direction so as to be away from the cylinder head is formed in the chain casing, the bulging portion covering the variable valve timing mechanism, wherein the chain casing includes: a cylindrical intake side cylinder portion provided on a lower portion of the bulging portion and bulging in the crank shaft direction so as to be away from the cylinder head, into which the intake hydraulic control valve is inserted; a cylindrical exhaust side cylinder portion provided on the lower portion of the bulging portion and bulging in the crank shaft direction so as to be away from the cylinder head, into which the exhaust hydraulic control valve is inserted; and intake and exhaust side fastening boss portions, provided on respective lower portions of the intake and exhaust side cylinder portions, attaching the chain casing to the cylinder head. a variable valve timing mechanism configured by winding a timing chain thereon; intake and exhaust hydraulic control valves each controlling a hydraulic oil supplied to the variable valve timing mechanism; and a chain casing fixed to a cylinder head, to cover the timing chain and the variable valve timing mechanism, wherein a bulging portion bulging in a crank shaft direction so as to be away from the cylinder head is formed in the chain casing, the bulging portion covering the variable valve timing mechanism, wherein the chain casing includes: a cylindrical intake side cylinder portion provided on a lower portion of the bulging portion and bulging in the crank shaft direction so as to be away from the cylinder head, into which the intake hydraulic control valve is inserted; a cylindrical exhaust side cylinder portion provided on the lower portion of the bulging portion and bulging in the crank shaft direction so as to be away from the cylinder head, into which the exhaust hydraulic control valve is inserted; and intake and exhaust side fastening boss portions, provided on respective lower portions of the intake and exhaust side cylinder portions, attaching the chain casing to the cylinder head. a cylindrical intake side cylinder portion provided on a lower portion of the bulging portion and bulging in the crank shaft direction so as to be away from the cylinder head, into which the intake hydraulic control valve is inserted; a cylindrical exhaust side cylinder portion provided on the lower portion of the bulging portion and bulging in the crank shaft direction so as to be away from the cylinder head, into which the exhaust hydraulic control valve is inserted; and intake and exhaust side fastening boss portions, provided on respective lower portions of the intake and exhaust side cylinder portions, attaching the chain casing to the cylinder head.
Method for manufacturing a decorative foil, of the type used in decorative panels, wherein said method comprises at least the following steps: - the step of providing a thermoplastic carrier layer; - the step of providing an ink receiving layer to said carrier layer; - the step of forming a decorative pattern on said carrier layer by performing a digital printing operation wherein droplets of aqueous inks having a volume smaller than 100pL are jet to said ink receiving layer, characterized in that said ink receiving layer comprises a binding agent, preferably different from an acrylic copolymer, and silica and in that said ink receiving layer, and preferably said ink, comprises a waterborne aliphatic polyurethane dispersion as a binding agent. - the step of providing a thermoplastic carrier layer; - the step of providing an ink receiving layer to said carrier layer; - the step of forming a decorative pattern on said carrier layer by performing a digital printing operation wherein droplets of aqueous inks having a volume smaller than 100pL are jet to said ink receiving layer,
A terminal comprising: a receiving section configured to receive downlink control information including information on a transmission direction in a given slot, the information on a transmission direction in a given slot including information about a format of the given slot; a control section configured to control transmission and/or reception in the transmission direction in the given slot, so that the transmission direction in one or more given symbols in the given slot is not changed by the downlink control information. a receiving section configured to receive downlink control information including information on a transmission direction in a given slot, the information on a transmission direction in a given slot including information about a format of the given slot; a control section configured to control transmission and/or reception in the transmission direction in the given slot, so that the transmission direction in one or more given symbols in the given slot is not changed by the downlink control information.
Balancing device having a measuring device for determining rotational imbalance of a test piece, comprising a spindle unit with a spindle, which is intended to hold the test piece and to allow the test piece to rotate at a testing speed, and a spindle suspension, by means of which the spindle unit is movably anchored to the machine base, so that the spindle unit is able to oscillate in a predefined measurement direction as a result of the imbalance forces occurring during the measurement operation, and at least one sensor which, during rotation of the spindle, detects at least one imbalance characteristic variable occurring in the measurement direction, and a material removal device for balancing the test piece by material removal at a predetermined point, wherein the measuring device and the material removal device are designed such that the material removal can be carried out with the test piece held in the spindle, and wherein the sensors are located on the tool holder outside the force flow, both during the clamping of the spindle unit and also during the material removal, so that the forces occurring during the clamping do not influence the sensors jointly responsible for the measurement accuracy, characterized in that, in addition, a spindle lock configured as a clamping device is provided, by means of which the spindle unit can be fixed without loading the spindle suspension or at least without loading a sensor or the sensors with a force produced by the fixing, such that the spindle suspension does not move under the influence of the forces caused by the material removal device, wherein two separate clamping systems are provided, of which the first fixes the suspension unit against the action of of forces from a first direction, and the second fixes the suspension unit against the action forces from a second direction, different from the first direction, wherein the first direction corresponds to a direction parallel to the axis of rotation of the spindle, and the second direction corresponds to a direction perpendicular thereto, wherein both directions are at the same time also oriented perpendicular to the measurement direction of the sensors or of the sensor.
A liquid crystal display having a surface facing the light source unit and an opposite surface comprising: a light source unit; an in-cell polarizer comprising a first substrate having a surface facing the light source unit and an opposite surface; a reflecting unit provided in a region of the first substrate; and a wire grid polarizer provided in another region of the first substrate, the first substrate being provided on the light source unit; an electrode layer facing the opposite surface of the first substrate; a second substrate separate from the electrode layer; a polarizing plate provided on a surface of the second substrate; a liquid crystal layer disposed between the electrode layer and the second substrate; a black matrix provided on part of the electrode layer; wherein the reflecting unit is formed by depositing and patterning a metal layer and is arranged in the region opposite to the black matrix to reflect light from the light source unit, and the region) in which the reflecting unit is provided and the region in which the wire grid polarizer is provided do not overlap, characterised in that the reflecting unit is provided on the surface of the first substrate facing the light source unit and the wire grid polariser is provided on the opposite surface of the first substrate. a light source unit; an in-cell polarizer comprising a first substrate having a surface facing the light source unit and an opposite surface; a reflecting unit provided in a region of the first substrate; and a wire grid polarizer provided in another region of the first substrate, the first substrate being provided on the light source unit; an electrode layer facing the opposite surface of the first substrate; a second substrate separate from the electrode layer; a polarizing plate provided on a surface of the second substrate; a liquid crystal layer disposed between the electrode layer and the second substrate; a black matrix provided on part of the electrode layer; wherein the reflecting unit is formed by depositing and patterning a metal layer and is arranged in the region opposite to the black matrix to reflect light from the light source unit, and the region) in which the reflecting unit is provided and the region in which the wire grid polarizer is provided do not overlap, characterised in that the reflecting unit is provided on the surface of the first substrate facing the light source unit and the wire grid polariser is provided on the opposite surface of the first substrate.
A non-transitory computer readable medium storing instructions executable by a processing resource to cause a computing device to: identify, by the processing resource of the computing device, an operating system uniform resource locator from a radio-frequency identification (RFID) chip coupled to the processing resource in response to the computing device being powered on; download, from an OS repository: an OS descriptor using the OS URL from the RFID chip; and an OS image using the OS descriptor; and install an OS to a hard disk of the computing device using the OS image downloaded from the OS repository. identify, by the processing resource of the computing device, an operating system uniform resource locator from a radio-frequency identification (RFID) chip coupled to the processing resource in response to the computing device being powered on; download, from an OS repository: an OS descriptor using the OS URL from the RFID chip; and an OS image using the OS descriptor; and an OS descriptor using the OS URL from the RFID chip; and an OS image using the OS descriptor; and install an OS to a hard disk of the computing device using the OS image downloaded from the OS repository.
A pressure sensor comprising: a first resistor (720, 820) on a first side of a wafer, the wafer including a diaphragm the first resistor (720, 820) having a first resistance, the first resistor (720, 820) on or near the diaphragm; a first layer (740, 840) over the first resistor (720, 820); characterised by a first opening (770, 870) patterned in the first layer (740, 840), wherein a first stress (750, 850) is applied to the first resistor (720, 820) in a first direction, and the first opening (770, 870) is patterned causing a second stress (760, 860) to be applied in a second direction to the first resistor (720, 820) and a variation in the resistance of the first resistor (720, 820) due to the first stress being reduced by the second stress. a first resistor (720, 820) on a first side of a wafer, the wafer including a diaphragm the first resistor (720, 820) having a first resistance, the first resistor (720, 820) on or near the diaphragm; a first layer (740, 840) over the first resistor (720, 820); characterised by a first opening (770, 870) patterned in the first layer (740, 840), wherein a first stress (750, 850) is applied to the first resistor (720, 820) in a first direction, and the first opening (770, 870) is patterned causing a second stress (760, 860) to be applied in a second direction to the first resistor (720, 820) and a variation in the resistance of the first resistor (720, 820) due to the first stress being reduced by the second stress.
A needle handle comprising: a needle handle body having a single wing or fin and a needle (b)) operably connected to a tubing section; the needle handle body configured to be grasped by a user during insertion of the needle into a subject; the needle handle including a C-shaped bore sized to accommodate the tubing section. a needle handle body having a single wing or fin and a needle (b)) operably connected to a tubing section; the needle handle body configured to be grasped by a user during insertion of the needle into a subject; the needle handle including a C-shaped bore sized to accommodate the tubing section.
A benzoxazine resin composition comprising: a compound having in its molecule a benzoxazine ring represented by the formula: wherein R 1 stands for a chain alkyl group having 1 to 12 carbon atoms, a cyclic alkyl group having 3 to 8 carbon atoms, a phenyl group, or a phenyl group substituted with a chain alkyl group having 1 to 12 carbon atoms or a halogen, and a hydrogen atom is bonded to at least one of the carbon atoms of the aromatic ring at ortho- or para-position with respect to the carbon atom to which the oxygen atom is bonded; an epoxy resin; a curing agent; a toughness improver; and polyamide 12 particles having an average particle size of not smaller than 1 μm and smaller than 15 μm determined as an average of the long axis diameter of 100 arbitrarily-selected particles measured under a scanning electron microscope at an enlargement of ×200 to ×500; wherein a content of said component is 70 to 78 mass% and a content of said component is 22 to 30 mass%, with a total of components and being 100 mass%, wherein, with respect to 100 parts by mass of the total of components and, a content of said component is 5 to 20 parts by mass, a content of said component is 3 to 20 parts by mass, and a content of said component is 20 to 30 parts by mass, and wherein component is dispersed in the composition, and in a uniform or commingled state. a compound having in its molecule a benzoxazine ring represented by the formula: wherein R 1 stands for a chain alkyl group having 1 to 12 carbon atoms, a cyclic alkyl group having 3 to 8 carbon atoms, a phenyl group, or a phenyl group substituted with a chain alkyl group having 1 to 12 carbon atoms or a halogen, and a hydrogen atom is bonded to at least one of the carbon atoms of the aromatic ring at ortho- or para-position with respect to the carbon atom to which the oxygen atom is bonded; an epoxy resin; a curing agent; a toughness improver; and polyamide 12 particles having an average particle size of not smaller than 1 μm and smaller than 15 μm determined as an average of the long axis diameter of 100 arbitrarily-selected particles measured under a scanning electron microscope at an enlargement of ×200 to ×500;
A Stability and Control Augmentation System ("SCAS") module comprising one or more SCAS actuators (201,202), the or each SCAS actuator (201,202) comprising: a substantially cylindrical hydraulic chamber; a piston arranged for linear motion along a first axis of said hydraulic chamber; and a valve for controlling a flow of hydraulic fluid into the hydraulic chamber to cause said piston to move along said first axis; wherein said piston comprises a flexible rod or quill operatively connected to a first movable element and is arranged for providing a linear output to said first movable element along said first axis such that said linear output causes a movement of the first movable element in a direction parallel to said first axis, wherein said flexible rod or quill is mounted internally within an annular portion of said piston such that a space is defined between said flexible rod or quill and said annular portion in a second direction perpendicular to said first axis, and wherein said flexible rod or quill is configured for deforming into said space to accommodate displacement of said first movable element. a substantially cylindrical hydraulic chamber; a piston arranged for linear motion along a first axis of said hydraulic chamber; and a valve for controlling a flow of hydraulic fluid into the hydraulic chamber to cause said piston to move along said first axis; wherein said piston comprises a flexible rod or quill operatively connected to a first movable element and is arranged for providing a linear output to said first movable element along said first axis such that said linear output causes a movement of the first movable element in a direction parallel to said first axis, wherein said flexible rod or quill is mounted internally within an annular portion of said piston such that a space is defined between said flexible rod or quill and said annular portion in a second direction perpendicular to said first axis, and wherein said flexible rod or quill is configured for deforming into said space to accommodate displacement of said first movable element.
A method of performing a matrix multiplication using a hardware circuit, the method comprising: obtaining, by a matrix computation unit of the hardware circuit, an activation input value and a weight input value, the activation input value and the weight input value each having a first floating point format; multiplying, by a multiplication circuitry of the matrix computation unit, the activation input value and the weight input value to generate a product value, the product value having a second floating point format that has a higher precision than the first floating point format and has a dynamic range that is at least as large as the dynamic range of the first floating point format; obtaining, by the matrix computation unit, a partial sum value in a third floating point format that has a higher precision than the first floating point format and has a dynamic range that is at least as large as the dynamic range of the first floating point format; and combining, by a summation circuitry of the hardware circuit, at least the partial sum value and the product value to generate an updated partial sum value that has the third floating point format, wherein the precision of each floating point format is determined based on a count of available bits for a significand in the floating point format, and the dynamic range of each floating point format is determined based on a count of available bits for an exponent in the floating point format. obtaining, by a matrix computation unit of the hardware circuit, an activation input value and a weight input value, the activation input value and the weight input value each having a first floating point format; multiplying, by a multiplication circuitry of the matrix computation unit, the activation input value and the weight input value to generate a product value, the product value having a second floating point format that has a higher precision than the first floating point format and has a dynamic range that is at least as large as the dynamic range of the first floating point format; obtaining, by the matrix computation unit, a partial sum value in a third floating point format that has a higher precision than the first floating point format and has a dynamic range that is at least as large as the dynamic range of the first floating point format; and combining, by a summation circuitry of the hardware circuit, at least the partial sum value and the product value to generate an updated partial sum value that has the third floating point format, wherein the precision of each floating point format is determined based on a count of available bits for a significand in the floating point format, and the dynamic range of each floating point format is determined based on a count of available bits for an exponent in the floating point format.
Method for protecting a thermoplastic polymer comprising superposing, in this order, by coextrusion, by hot compression moulding or by multi-injection moulding: • a protective layer comprising an acrylic copolymer comprising, by weight (the total making 100%): - from 80 to 99.8% of methyl methacrylate, - from 0 to 20% of at least one comonomer radically copolymerizable with MMA, and - from 0.2 to 10%: ∘ of maleic anhydride or ∘ of acrylic and/or methacrylic acid and optionally of anhydride groups of formula: in which R 1 and R 2 denote H or a methyl radical, said anhydride groups are obtained by two adjacent acid units which can interact by dehydration to give an anhydride group, • a layer of at least one thermoplastic polymer, the protective layer has a thickness between 10 and 1000 μm • a protective layer comprising an acrylic copolymer comprising, by weight (the total making 100%): - from 80 to 99.8% of methyl methacrylate, - from 0 to 20% of at least one comonomer radically copolymerizable with MMA, and - from 0.2 to 10%: ∘ of maleic anhydride or ∘ of acrylic and/or methacrylic acid and optionally of anhydride groups of formula: in which R 1 and R 2 denote H or a methyl radical, said anhydride groups are obtained by two adjacent acid units which can interact by dehydration to give an anhydride group, - from 80 to 99.8% of methyl methacrylate, - from 0 to 20% of at least one comonomer radically copolymerizable with MMA, and - from 0.2 to 10%: ∘ of maleic anhydride or ∘ of acrylic and/or methacrylic acid and optionally of anhydride groups of formula: in which R 1 and R 2 denote H or a methyl radical, said anhydride groups are obtained by two adjacent acid units which can interact by dehydration to give an anhydride group, ∘ of maleic anhydride or ∘ of acrylic and/or methacrylic acid and optionally of anhydride groups of formula: in which R 1 and R 2 denote H or a methyl radical, said anhydride groups are obtained by two adjacent acid units which can interact by dehydration to give an anhydride group, • a layer of at least one thermoplastic polymer, the protective layer has a thickness between 10 and 1000 μm
A vibratory screening apparatus comprising a support; at least two screen decks arranged one over the other as an assembly, each screen deck including a screen frame, a screen and a chamber underlaying the screen surface, an outlet duct for oversized material and an outlet duct for undersized material that is in communication with the chamber; mountings (4a, 4b) configured for mounting the assembly of the at least two screen decks to the support; a drive support with a motor assembly configured for vibrating the assembly of the at least two screen decks; and a feed unit configured to feed the material to be screened to each screen deck; wherein the feed unit is arranged on the support and configured to be moved between a feed position and a maintenance position; and wherein the assembly of the at least two screen decks is resiliently arranged on the support, characterised in that the feed unit is non-resiliently arranged on the support. a support; at least two screen decks arranged one over the other as an assembly, each screen deck including a screen frame, a screen and a chamber underlaying the screen surface, an outlet duct for oversized material and an outlet duct for undersized material that is in communication with the chamber; mountings (4a, 4b) configured for mounting the assembly of the at least two screen decks to the support; a drive support with a motor assembly configured for vibrating the assembly of the at least two screen decks; and a feed unit configured to feed the material to be screened to each screen deck; wherein the feed unit is arranged on the support and configured to be moved between a feed position and a maintenance position; and wherein the assembly of the at least two screen decks is resiliently arranged on the support, characterised in that the feed unit is non-resiliently arranged on the support.