mhurhangee/patent-ind-claim-en huggingface dataset:
A die cushion device comprising: a fluid-pressure cylinder configured to support a cushion pad and generate die cushion force while a slide of a press machine descends; a first fluid-pressure circuit configured to supply operation fluid to a cap side fluid-pressure chamber of the fluid-pressure cylinder or discharge the operation fluid from the cap side fluid-pressure chamber ; and a second fluid-pressure circuit configured to enable the operation fluid to be prevented from flowing out from a rod side fluid-pressure chamber of the fluid-pressure cylinder , or configured to enable the operation fluid to flow into the rod side fluid-pressure chamber ; and a pressurization controller configured to control the second fluid-pressure circuit before die cushion force control starts to cause the operation fluid to be prevented from flowing out from the rod side fluid-pressure chamber of the fluid-pressure cylinder , and to control the first fluid-pressure circuit to cause pressure fluid to be supplied to the cap side fluid-pressure chamber of the fluid-pressure cylinder while the operation fluid is prevented from flowing out from the rod side fluid-pressure chamber to pressurize the cap side fluid-pressure chamber . a fluid-pressure cylinder configured to support a cushion pad and generate die cushion force while a slide of a press machine descends; a first fluid-pressure circuit configured to supply operation fluid to a cap side fluid-pressure chamber of the fluid-pressure cylinder or discharge the operation fluid from the cap side fluid-pressure chamber ; and a second fluid-pressure circuit configured to enable the operation fluid to be prevented from flowing out from a rod side fluid-pressure chamber of the fluid-pressure cylinder , or configured to enable the operation fluid to flow into the rod side fluid-pressure chamber ; and a pressurization controller configured to control the second fluid-pressure circuit before die cushion force control starts to cause the operation fluid to be prevented from flowing out from the rod side fluid-pressure chamber of the fluid-pressure cylinder , and to control the first fluid-pressure circuit to cause pressure fluid to be supplied to the cap side fluid-pressure chamber of the fluid-pressure cylinder while the operation fluid is prevented from flowing out from the rod side fluid-pressure chamber to pressurize the cap side fluid-pressure chamber .
A resource allocation method, comprising: sending a resource request message, the resource request message being a Device-to-Device, D2D, scheduling request message or a buffer status report, wherein the D2D scheduling request message comprises a D2D semi-persistent scheduling period, and the D2D scheduling request message, respectively the buffer status report, further comprises a D2D communication group identifier or communication destination identifier; receiving D2D resource configuration information and/or D2D resource allocation information; and performing D2D transmission using resources corresponding to the D2D resource configuration information and/or the D2D resource allocation information, the D2D transmission being D2D discovery, or D2D broadcast or groupcast or unicast communication. sending a resource request message, the resource request message being a Device-to-Device, D2D, scheduling request message or a buffer status report, wherein the D2D scheduling request message comprises a D2D semi-persistent scheduling period, and the D2D scheduling request message, respectively the buffer status report, further comprises a D2D communication group identifier or communication destination identifier; receiving D2D resource configuration information and/or D2D resource allocation information; and performing D2D transmission using resources corresponding to the D2D resource configuration information and/or the D2D resource allocation information, the D2D transmission being D2D discovery, or D2D broadcast or groupcast or unicast communication.
An apparatus (20;100) for disinfecting a room, comprising: a discharge lamp (22;104) configured to emit ultraviolet light; a power circuit configured to operate the discharge lamp; a support structure (24;102) containing the power circuit and supporting the discharge lamp, wherein the discharge lamp is arranged to propagate light above an upper surface of the support structure; and a reflector system configured to redirect ultraviolet light propagating away from the support structure to a region exterior to the apparatus between 61 cm (2 feet) and 122 cm (4 feet) from a floor of a room in which the apparatus is arranged, wherein the reflector system comprises a conical reflector (62;118) above the discharge lamp. a discharge lamp (22;104) configured to emit ultraviolet light; a power circuit configured to operate the discharge lamp; a support structure (24;102) containing the power circuit and supporting the discharge lamp, wherein the discharge lamp is arranged to propagate light above an upper surface of the support structure; and a reflector system configured to redirect ultraviolet light propagating away from the support structure to a region exterior to the apparatus between 61 cm (2 feet) and 122 cm (4 feet) from a floor of a room in which the apparatus is arranged, wherein the reflector system comprises a conical reflector (62;118) above the discharge lamp.
Parking system comprising a frame construction which has three horizontal levels, wherein level 2 is arranged vertically below level 1 and level 3 is arranged vertically below level 2 and wherein level 1 forms the entry level, further comprising drivable platforms, wherein the parking system has n drivable lifting platforms , with n ∈ N and n ≥ 2, wherein the n drivable lifting platforms can be moved vertically; level 1 and level 2 each have n-1 drivable sliding platforms , wherein the n-1 drivable sliding platforms can be moved horizontally; each of the n drivable lifting platforms has a frame comprising two rails , wherein one of the n-1 sliding platforms of level 2 can be slid horizontally into the two rails ; and each sliding platform of level 2 can be moved vertically by a lifting platform . level 1 and level 2 each have n-1 drivable sliding platforms , wherein the n-1 drivable sliding platforms can be moved horizontally; each of the n drivable lifting platforms has a frame comprising two rails , wherein one of the n-1 sliding platforms of level 2 can be slid horizontally into the two rails ; and each sliding platform of level 2 can be moved vertically by a lifting platform .
A storage card, wherein the storage card (200; 300) is a non-volatile memory storage card, wherein the storage card (200; 300) has a substantially rectangular shape comprising four edges, wherein the four edges comprising a first edge (L23; L33), a second edge (L22; L32), a third edge (L24; L34) and a fourth edge (L21; L31); wherein the first edge (L23; L33) is opposite and parallel to the third edge (L24; L34), the second edge (L22; L32) is opposite and parallel to the fourth edge (L21; L31), the first edge (L23; L33) is adjacent to the second edge (L22; L32) and the fourth edge (L21; L31); wherein a distance between the first edge (L23; L33) and the third edge (L24; L34) is 12.3 ± 0.1mm, a distance between the second edge (L22; L32) and the fourth edge (L21; L31) is 8.8 ± 0.1mm; wherein a connection portion (A23; A33) between the first edge (L23; L33) and the second edge (L22; L32), a connection portion (A22; A32) between the second edge (L22; L32) and the third edge (L24; L34) and a connection portion (A21; A31) between the third edge (L24; L34) and the fourth edge (L21; L31) are provided with an arc connection; a corner (S2; S3) is disposed between the first edge (L23; L33) and the fourth edge (L21; L31); a connection point between the corner (S2; S3) and the first edge (L23; L33) is a first connection point, a distance between the first connection point and the fourth edge (L21; L31) is a first distance; a connection point between the corner (S2; S3) and the fourth edge (L21; L31) is a second connection point, a distance between the second connection point and the first edge (L23; L33) is a second distance, characterized in that at least one of the first distance or the second distance is strictly less than 1.65mm. wherein the first edge (L23; L33) is opposite and parallel to the third edge (L24; L34), the second edge (L22; L32) is opposite and parallel to the fourth edge (L21; L31), the first edge (L23; L33) is adjacent to the second edge (L22; L32) and the fourth edge (L21; L31); wherein a distance between the first edge (L23; L33) and the third edge (L24; L34) is 12.3 ± 0.1mm, a distance between the second edge (L22; L32) and the fourth edge (L21; L31) is 8.8 ± 0.1mm; wherein a connection portion (A23; A33) between the first edge (L23; L33) and the second edge (L22; L32), a connection portion (A22; A32) between the second edge (L22; L32) and the third edge (L24; L34) and a connection portion (A21; A31) between the third edge (L24; L34) and the fourth edge (L21; L31) are provided with an arc connection; a corner (S2; S3) is disposed between the first edge (L23; L33) and the fourth edge (L21; L31); a connection point between the corner (S2; S3) and the first edge (L23; L33) is a first connection point, a distance between the first connection point and the fourth edge (L21; L31) is a first distance; a connection point between the corner (S2; S3) and the fourth edge (L21; L31) is a second connection point, a distance between the second connection point and the first edge (L23; L33) is a second distance, characterized in that at least one of the first distance or the second distance is strictly less than 1.65mm.
An RFID system comprising: an RFID tag including a first magnetic field antenna ; an article having a cylindrical shape and housing the RFID tag in a random direction; a conveying path conveying the article ; a reader/writer including a second magnetic field antenna communicating with the first magnetic field antenna through a magnetic field coupling and disposed along the conveying path ; the reader/writer is one of a plurality of readers/writers arranged along the conveying direction, and an antenna controller controlling the plurality of readers/writers , wherein while the conveying path conveys the RFID tag such that an opening plane of the second magnetic field antenna and the RFID tag face each other, the second magnetic field antenna emits a magnetic flux, and wherein a distance between the RFID tag and the second magnetic field antenna in a normal direction of the second magnetic field antenna is smaller than an opening diameter (Lr) of the second magnetic field antenna (a), and the antenna controller provides control such that a magnetic flux is emitted with a time lag from the plurality of readers/writers adjacent to each other in the conveying direction. an RFID tag including a first magnetic field antenna ; an article having a cylindrical shape and housing the RFID tag in a random direction; a conveying path conveying the article ; a reader/writer including a second magnetic field antenna communicating with the first magnetic field antenna through a magnetic field coupling and disposed along the conveying path ; the reader/writer is one of a plurality of readers/writers arranged along the conveying direction, and an antenna controller controlling the plurality of readers/writers , wherein while the conveying path conveys the RFID tag such that an opening plane of the second magnetic field antenna and the RFID tag face each other, the second magnetic field antenna emits a magnetic flux, and wherein a distance between the RFID tag and the second magnetic field antenna in a normal direction of the second magnetic field antenna is smaller than an opening diameter (Lr) of the second magnetic field antenna (a), and the antenna controller provides control such that a magnetic flux is emitted with a time lag from the plurality of readers/writers adjacent to each other in the conveying direction.
Compression device comprising at least: - two interleaved scrolls and each of which is made of an alloy with a density less than 5, wherein one of the scrolls, referred to as the fixed scroll , is fixed and the other scroll, referred to as the orbiting scroll , moves eccentrically without rotating, - anti-rotation means made of an aluminium alloy and suitable for allowing anti-rotation of said orbiting scroll , and - a flat thrust bearing suitable for axially retaining the orbiting scroll , characterised in that the surface of the scroll intended to come into contact with the flat thrust bearing is covered with a thick coating, with a thickness between 40 and 200 μm, with a hardness greater than 1100 HV and mostly comprised of an oxide coming from the light alloy, and in that the flat thrust bearing is made of a material selected from the set of materials including aluminium, magnesium and titanium alloys, and in that the surface of the flat thrust bearing intended to come into contact with the scroll is covered with a thick coating, with a thickness between 40 and 200 μm, with a hardness greater than 1100 HV and comprised mostly of an oxide coming from the light alloy. - two interleaved scrolls and each of which is made of an alloy with a density less than 5, wherein one of the scrolls, referred to as the fixed scroll , is fixed and the other scroll, referred to as the orbiting scroll , moves eccentrically without rotating, - anti-rotation means made of an aluminium alloy and suitable for allowing anti-rotation of said orbiting scroll , and - a flat thrust bearing suitable for axially retaining the orbiting scroll , characterised in that the surface of the scroll intended to come into contact with the flat thrust bearing is covered with a thick coating, with a thickness between 40 and 200 μm, with a hardness greater than 1100 HV and mostly comprised of an oxide coming from the light alloy, and
Container made of plastic comprising a rectangular bottom and four side walls , wherein the bottom has a first stacking contour on the bottom on its outer edge, wherein the side walls have a second stacking contour on their upper edge area, and wherein, when stacking containers above one another, the first stacking contour of an upper container and the second stacking contour of a lower container engage with one another in a centering way, wherein the container is a foldable container , whose side walls are articulately connected to the bottom , wherein the bottom has a groove open downwards, characterized in that the upper edge area of at least two side walls opposite one another is respectively reinforced by at least one reinforcing profile applied in a form-fitting and/or force-fitting way on the remaining of the side wall , wherein the reinforcing profile does not consist of the same material as the remaining of the side wall , and that the/each reinforcing profile has at least one profile web forming a slide track for setting another container on top, said slide track extending in the longitudinal direction of the reinforcing profile on an upper side facing away from the container , wherein grooves are arranged congruent to the profile webs , wherein at least one of the reinforcing profiles can be latched to the remaining of the side wall by inserting downwards from above, for which purpose the side wall has latching elements and the reinforcing profile has latching elements interacting with the same, wherein the reinforcing profile has guide pins facing downward in each case which can be accommodated in a respective corresponding recess close to the side edges of the side wall .
A ventilation element for introducing a gas into a liquid, having at least one gas connection , at least one support plate and at least one elastically deformable membrane , which is connected to the at least one gas connection and/or the at least one support plate , a space that can be formed between the at least one membrane and the at least one support plate being in flow connection with the gas connection , the at least one support plate having a multiplicity of gas outlet openings and the at least one membrane consisting at least in certain sections of a material with a lower density than water and/or being provided with at least one float , which has a lower density than water, characterized in that the at least one membrane has a multi-layered structure at least in certain sections, wherein floats , which have a lower density than water, are enclosed between two layers of the at least one membrane .
Disassembly extraction system for a turbine machine comprising : - a first part of revolution with an attachment flange and a second part of revolution with an attachment flange , the two parts of revolution being assembled by interference fit at their attachment flange; - a plurality of extraction sleeves each one comprising: - a head ; - a cylindrical-shaped body , the internal part of the cylindrical body having a screw thread adapted to enable screwing of an extraction screw ; said attachment flange of the first part of revolution having a plurality of orifices distributed around the periphery of said flange adapted to hold said extraction sleeves ; being characterised in that the head present a conical part forming a friction means adapted to come into contact with the first parts of revolution, said friction means being sized so as to determine a limiting slip torque higher than the friction torque generated at each sleeve screw thread by screwing the extraction screw. - a first part of revolution with an attachment flange and a second part of revolution with an attachment flange , the two parts of revolution being assembled by interference fit at their attachment flange; - a plurality of extraction sleeves each one comprising: - a head ; - a cylindrical-shaped body , the internal part of the cylindrical body having a screw thread adapted to enable screwing of an extraction screw ; - a head ; - a cylindrical-shaped body , the internal part of the cylindrical body having a screw thread adapted to enable screwing of an extraction screw ;
A process for the preparation of compound of Formula IX, wherein R is halogen, alkyl or alkoxy group; and Ar is aryl group, substituted or unsustituted monocyclic, polycyclic or heterocyclic ring selected from the residues A, B, C or D as given below, which process comprises, a) treating the compound 2,3,4,6-tetra-O-benzyl-D-glucopyranose of Formula VI, with aryl halide compound of Formula VII wherein Ar and R is as previously defined and X is any halogen group selected from Cl, Br, or I in presence of sodium hypochlorite solution, a strong base and organic solvent at a temperature in the range of -80°C to 0°C to isolate an intermediate compound of Formula I; wherein Bn is Benzyl group; R 1 is hydrogen or methyl; and R and Ar are as defined above. b) reacting the intermediate compound of Formula I with a reducing reagent and boron trifluoride-diethyl etherate in presence of solvent to obtain the intermediate compound of Formula VIII; where R and Ar are as defined above. c) purifying the compound of formula VIII from a solvent to obtain compound of formula VIIIa; and wherein R, Ar and Bn are same as previously defined d) deprotecting the intermediate compound of Formula VIIIa to isolate compound of Formula IX. a) treating the compound 2,3,4,6-tetra-O-benzyl-D-glucopyranose of Formula VI, with aryl halide compound of Formula VII wherein Ar and R is as previously defined and X is any halogen group selected from Cl, Br, or I in presence of sodium hypochlorite solution, a strong base and organic solvent at a temperature in the range of -80°C to 0°C to isolate an intermediate compound of Formula I; wherein Bn is Benzyl group; R 1 is hydrogen or methyl; and R and Ar are as defined above. wherein Bn is Benzyl group; R 1 is hydrogen or methyl; and R and Ar are as defined above. b) reacting the intermediate compound of Formula I with a reducing reagent and boron trifluoride-diethyl etherate in presence of solvent to obtain the intermediate compound of Formula VIII; where R and Ar are as defined above. c) purifying the compound of formula VIII from a solvent to obtain compound of formula VIIIa; and wherein R, Ar and Bn are same as previously defined d) deprotecting the intermediate compound of Formula VIIIa to isolate compound of Formula IX.
A cleaning liquid for cleaning a ship ballast water treatment filter, wherein the cleaning liquid comprises hydrochloric acid with a molar concentration of 3.2-6.4mol/L, hexamethylene tetramine with a mass-to-volume ratio of 1.3-4.0g/L, polyacrylic acid with a mass-to-volume ratio of 13.0-33.5g/L, polyaspartic acid with a mass-to-volume ratio of 3.0-13.5g/L, sodium dodecyl sulfate with a mass-to-volume ratio of 0.6-2.0g/L, and sodium gluconate with a mass-to-volume ratio of 3.0-10.0g/L.
A system comprising: a first chuck configured to support a first substantially planar mold having a first mold surface during use of the system ; a second chuck (104b; 508b) configured to support a second substantially planar mold having a second mold surface during use of the system (100; 500; 700), the second chuck (104b; 508b) comprising a least a portion adjacent the second mold that is substantially transparent to one or more wavelengths of radiation suitable for photocuring a photocurable material ; an actuable stage (102; 506a; 602) coupled to the first chuck (104a; 508a) and/or the second chuck (104b; 508b), wherein the actuable stage (102; 506a; 602) is configured, during use of the system (100; 500; 700), to position the first chuck (104a; 508a) and/or the second chuck (104b; 508b) so that the first and second mold surfaces face each other and are separated by a gap ; a sensor arrangement for obtaining measurement information indicative of a pressure applied at each of at least three spacers disposed at different locations between the first and second chucks (104a, 104b; 508a, 508b) during use of the system (100; 500; 700); and a control module (112; 550) communicatively coupled to the actuable stage (102; 506a; 602), wherein the control module (112; 550) is configured, during use of the system (100; 500; 700), to receive the measurement information and to control the gap between the first and second mold surfaces based on the received measurement information. a first chuck configured to support a first substantially planar mold having a first mold surface during use of the system ; a second chuck (104b; 508b) configured to support a second substantially planar mold having a second mold surface during use of the system (100; 500; 700), the second chuck (104b; 508b) comprising a least a portion adjacent the second mold that is substantially transparent to one or more wavelengths of radiation suitable for photocuring a photocurable material ; an actuable stage (102; 506a; 602) coupled to the first chuck (104a; 508a) and/or the second chuck (104b; 508b), wherein the actuable stage (102; 506a; 602) is configured, during use of the system (100; 500; 700), to position the first chuck (104a; 508a) and/or the second chuck (104b; 508b) so that the first and second mold surfaces face each other and are separated by a gap ; a sensor arrangement for obtaining measurement information indicative of a pressure applied at each of at least three spacers disposed at different locations between the first and second chucks (104a, 104b; 508a, 508b) during use of the system (100; 500; 700); and a control module (112; 550) communicatively coupled to the actuable stage (102; 506a; 602), wherein the control module (112; 550) is configured, during use of the system (100; 500; 700), to receive the measurement information and to control the gap between the first and second mold surfaces based on the received measurement information.