mhurhangee/ep-ind-claims huggingface dataset:
A cup comprising: a cup body (1100, 2100, 3100) made of synthetic resin and having a containing part with an opening (1120, 2120, 3120) being open upward and having a relatively large diameter to be able to receive a beverage or food; and a cup holder (1200, 2200, 3200) made of synthetic resin and fitted on the cup body (1100, 2100, 3100) from an end opposite the opening of the cup body, with a portion except for an upper end and a lower end thereof spaced a predetermined gap from an outer side of a containing part of the cup body (1100, 2100, 3100), wherein the cup body (1100, 2100, 3100) has: a holder top seat (1130, 2130, 3130) extending downward a predetermined length from the opening (1120, 2120, 3120) and stepped such that a diameter thereof decreases downward, and having an inclined fastening groove (2131, 3131) having a diameter decreasing upward, on an outer side thereof; a containing part-inclined surface extending downward from the holder top seat (1130, 2130, 3130) such that a diameter thereof decreases downward, having a containing part for receiving a beverage or food, and having an outer side inclined at a predetermined angle from an upper portion integrally extending from the holder top seat (1130, 2130, 3130) and a lower end forming the containing part; and three or more anti-sticking protrusions (1150, 2150, 3150) formed with regular angular intervals around an inner side of the containing part at a predetermined distance from the opening (1120, 2120, 3120) of the cup body toward a bottom of the containing part, with the outer side forming the containing part of the cup body (1100, 2100, 3100) maintained at a predetermined angle, in order to support a bottom of a second cup holder (1200, 2200, 3200) inserted in the containing part of the subject cup body (1100, 2100, 3100) when a second cup (1000, 2000, 3000) composed of the second cup holder (1200, 2200, 3200) and a second cup body (1100, 2100, 3100) is stacked, and the cup holder (1200, 2200, 3200) has: a pipe-shaped grip (1210, 2210, 3210) inclined with a predetermined length such that a diameter thereof decreases downward, and having an inclined fitting portion (1240, 2240, 3240) formed such that a diameter of an inner side of the cup holder (1200, 2200, 3200) decreases upward to correspond to the inclined fastening groove (2131, 3131) formed on the outer side of the holder top seat (1130, 2130, 3130) of the cup (1000, 2000, 3000) and to be in close contact with the inclined fastening groove (2131, 3131); and a bottom seating protrusion (1220, 2220, 3220) protruding inward from a lower end of the grip (1210, 2210, 3210) of the cup holder (1200, 2200, 3200) to be in close contact with a lower portion of the cup body (1100, 2100, 3100) and having air holes (1240, 2230, 3230) formed with regular angular intervals so that external air flows between the outer side of the containing part of the cup (1000, 2000, 3000) and the grip (1210, 2210, 3210) of the cup holder (1200, 2200, 3200).
A method for producing a PLLA/PDLA 40-60:60-40 polymer stereocomplex having a number average molecular weight of at least 15 000 Daltons, characterized in that it comprises the steps of: a) Bulk polymerizing the L-L lactide having optical purity of at least 98 %, preferably at least 99.5 %, more preferably at least 99.8 % to form the PLLA substantially free of insertion of lactide of D configuration, having a number average molecular weight (Mn) higher than 70 000 Daltons; b) Bulk polymerizing the D-D lactide having optical purity of at least 98 %, preferably at least 99.5 %, more preferably at least 99.8 % to form the PDLA substantially free of insertion of lactide of L configuration, having a number average molecular weight (Mn) higher than 70 000 Daltons; c) Mixing, in the absence of solvent, the PLLA and PDLA obtained at steps a) and b) in proportions of 40-60:60-40 in the presence of the initial catalytic system used at steps a) and b) and optionally in the presence of the non-converted L-lactide and D-lactide, at a temperature higher than the melt temperature of the polylactide, without exceeding 250°C; d) Optionally, demonomerizing the PLLA/PDLA polymer stereocomplex obtained; e) Granulating and recovering the PLLA/PDLA polymer stereocomplex obtained having a number average molecular weight > 15 000 Daltons and preferably > 80 000 Daltons. a) Bulk polymerizing the L-L lactide having optical purity of at least 98 %, preferably at least 99.5 %, more preferably at least 99.8 % to form the PLLA substantially free of insertion of lactide of D configuration, having a number average molecular weight (Mn) higher than 70 000 Daltons; b) Bulk polymerizing the D-D lactide having optical purity of at least 98 %, preferably at least 99.5 %, more preferably at least 99.8 % to form the PDLA substantially free of insertion of lactide of L configuration, having a number average molecular weight (Mn) higher than 70 000 Daltons; c) Mixing, in the absence of solvent, the PLLA and PDLA obtained at steps a) and b) in proportions of 40-60:60-40 in the presence of the initial catalytic system used at steps a) and b) and optionally in the presence of the non-converted L-lactide and D-lactide, at a temperature higher than the melt temperature of the polylactide, without exceeding 250°C; d) Optionally, demonomerizing the PLLA/PDLA polymer stereocomplex obtained; e) Granulating and recovering the PLLA/PDLA polymer stereocomplex obtained having a number average molecular weight > 15 000 Daltons and preferably > 80 000 Daltons.
Embossing die for pulsed nanoimprint lithography, comprising a heating element and an embossing structure, which is arranged on the heating element and is provided with an embossing profile to be embossed, wherein the heating element comprises an electrically conductive layer for pulsed heating of the embossing structure, and wherein that side of the heating element that faces towards the embossing structure comprises an electrical insulation layer, characterized in that the embossing structure is detachably connected to the heating element in the region of the electrical insulation layer, wherein the heating element has an elevated pedestal and the embossing structure with the embossing profile to be embossed is detachably clamped via the pedestal.
An antenna element, comprising: a feeding structure and a radiation patch, wherein both the feeding structure and the radiation patch are non-centrosymmetric structures; and power is fed to the radiation patch by using the feeding structure, and the radiation patch is grounded; wherein there is a slot between the feeding structure and the radiation patch, and coupled feeding is implemented between the feeding structure and the radiation patch by using the slot; and characterized in that the feeding structure is an E-shaped structure, the E-shaped structure is formed by a first vertical bar structure and three first horizontal bar structures with one end of each of the three first horizontal bar structures disposed on the first vertical bar structure at intervals, an opening of the E-shaped structure faces away from the radiation patch, a length of a first horizontal bar structure located in the middle of the E-shaped structure is greater than the lengths of the other two first horizontal bar structures, the other end of the first horizontal bar structure located in the middle of the E-shaped structure is configured to be connected to a feed of a metal carrier, and the slot is formed between the first vertical bar structure and the radiation patch. a feeding structure and a radiation patch, wherein both the feeding structure and the radiation patch are non-centrosymmetric structures; and power is fed to the radiation patch by using the feeding structure, and the radiation patch is grounded; wherein there is a slot between the feeding structure and the radiation patch, and coupled feeding is implemented between the feeding structure and the radiation patch by using the slot; and characterized in that the feeding structure is an E-shaped structure, the E-shaped structure is formed by a first vertical bar structure and three first horizontal bar structures with one end of each of the three first horizontal bar structures disposed on the first vertical bar structure at intervals, an opening of the E-shaped structure faces away from the radiation patch, a length of a first horizontal bar structure located in the middle of the E-shaped structure is greater than the lengths of the other two first horizontal bar structures, the other end of the first horizontal bar structure located in the middle of the E-shaped structure is configured to be connected to a feed of a metal carrier, and the slot is formed between the first vertical bar structure and the radiation patch.
A curved element, which is an elongated support piece, intended to be adapted to a space delimited by skin plates and edge spars in a wing, control surface or stabilizer of an aircraft, the curved element comprising: a first skin plate and a second skin plate; curved sides (27a, 27b) longitudinal relative to the skin plate and adaptable towards the skin plates of the wing, control surface or stabilizer; ends (28a, 28b) transverse relative to the skin plate and adaptable towards the edge spars of the wing, control surface or stabilizer; a plurality of reinforcements for increasing the rigidity of the skin plate; the curved element being manufactured from a composite material; and at least one surface of both skin plates (14, 21) is provided with a plurality of directed profile reinforcements (20, 25, 20a, 20b, 39a, 39b) constituting an integrated part of the profile of the skin plate (14, 21); characterized in that the profile reinforcements of the first skin plate and the profile reinforcements of the second skin plate are in different directions relative to one another. a first skin plate and a second skin plate; curved sides (27a, 27b) longitudinal relative to the skin plate and adaptable towards the skin plates of the wing, control surface or stabilizer; ends (28a, 28b) transverse relative to the skin plate and adaptable towards the edge spars of the wing, control surface or stabilizer; a plurality of reinforcements for increasing the rigidity of the skin plate; the curved element being manufactured from a composite material; and at least one surface of both skin plates (14, 21) is provided with a plurality of directed profile reinforcements (20, 25, 20a, 20b, 39a, 39b) constituting an integrated part of the profile of the skin plate (14, 21); characterized in that the profile reinforcements of the first skin plate and the profile reinforcements of the second skin plate are in different directions relative to one another.
A method of remotely maintaining a secure access system, comprising: storing a first set of credential data for at least one user of the secure access system; receiving a credential update for the at least one user of the secure access system; in response to receiving the credential update, replacing the first set of credential data with a second set of credential data that is different from the first set of credential data and then automatically initiating a system update process, the system update process comprising: generating a message comprising information representing the replacement of the first set of credential data with the second set of credential data; determining at least one target for said message, wherein said at least one target comprises at least one mobile device associated with the at least one user; and transmitting said message to said at least one target such that the at least one target, in response to receiving said message, modifies at least a portion of its memory according to the updated credential information; characterized in that the method further comprises: disabling at least a portion of said memory unless an enabling message is received. storing a first set of credential data for at least one user of the secure access system; receiving a credential update for the at least one user of the secure access system; in response to receiving the credential update, replacing the first set of credential data with a second set of credential data that is different from the first set of credential data and then automatically initiating a system update process, the system update process comprising: generating a message comprising information representing the replacement of the first set of credential data with the second set of credential data; determining at least one target for said message, wherein said at least one target comprises at least one mobile device associated with the at least one user; and transmitting said message to said at least one target such that the at least one target, in response to receiving said message, modifies at least a portion of its memory according to the updated credential information; generating a message comprising information representing the replacement of the first set of credential data with the second set of credential data; determining at least one target for said message, wherein said at least one target comprises at least one mobile device associated with the at least one user; and transmitting said message to said at least one target such that the at least one target, in response to receiving said message, modifies at least a portion of its memory according to the updated credential information; characterized in that the method further comprises: disabling at least a portion of said memory unless an enabling message is received.
A system for making microfluidic connections comprising: a base; a receiving feature for receiving a microfluidic device, said microfluidic device having at least one fluid port; a moveable device; a sealing fitting, having a fluid inlet and outlet, attached to said moveable device; and a compression mechanism; wherein the moveable device is fashioned to adjustably move the sealing fitting relative to the microfluidic device to access a fluid port located at any position on the microfluidic device to align said sealing fitting and said at least one fluid port of said microfluidic device into fluid communication; and wherein the compression mechanism is configured to compress said sealing fitting and said at least one fluid port into contact thereby forming a microfluidic connection by creating a leak-resistant seal at the interface of said sealing fitting and said at least one fluid port of said microfluidic device. a base; a receiving feature for receiving a microfluidic device, said microfluidic device having at least one fluid port; a moveable device; a sealing fitting, having a fluid inlet and outlet, attached to said moveable device; and a compression mechanism; wherein the moveable device is fashioned to adjustably move the sealing fitting relative to the microfluidic device to access a fluid port located at any position on the microfluidic device to align said sealing fitting and said at least one fluid port of said microfluidic device into fluid communication; and wherein the compression mechanism is configured to compress said sealing fitting and said at least one fluid port into contact thereby forming a microfluidic connection by creating a leak-resistant seal at the interface of said sealing fitting and said at least one fluid port of said microfluidic device.
A cyclonic separation apparatus arranged to separate matter from a fluid flow, the apparatus comprising a fluid inlet, a cyclone separation chamber having a cyclone axis about which the fluid entering the chamber rotates, a filter extending axially of the chamber upstream of a fluid outlet of the apparatus, the filter having a filter surface which faces radially outwardly of the cyclone axis, wherein a filter cleaning device is mounted inside the chamber, the device comprising a plurality of fingers which extend axially over said filter surface at respective circumferential positions, the fingers comprising projections which extend radially outwardly, the cleaning device being displaceable axially of the filter, the chamber comprising an end portion which can be displaced to allow separated matter to be removed from the chamber, characterised in that the cleaning device being biased towards said end portion such that the device is displaced axially of the filter under the applied bias when said end portion is displaced to remove separated matter from the chamber.
Method for controlling a transport device, namely a moving walkway or an escalator, by a control unit, the transport device comprising: a transport area for accommodating a person to be transported; transport means, namely movable pallets or movable steps, adapted for conveying the person located in the transport area in a standing manner; drive means adapted for driving the transport means; wherein during normal operation modus the drive means are operated at a normal speed; at least one image recording device for creating visual images (11, 12) of at least a sector of the transport area, wherein based on the recorded images (11, 12) a movement of the person within the transport area is analysed and based upon the result of the analysis the control unit is transferred into a safety modus, wherein the analyse performs a first evaluation, and if the first evaluation leads to the result, that the person is falling at a falling time (t_B), the control unit is transferred into an intermediate modus, wherein in the intermediate modus a second evaluation is performed; and if the second evaluation leads to the result, that the fallen person is standing up again at a stand up time (t_D), the control unit is transferred into normal operation modus in case that the second evaluation time (t_D) fulfils a predetermined condition, otherwise the control unit is transferred into the safety modus, and that in the safety modus drive means are stopped; characterized in that in the intermediate modus the drive means are operated at a reduced speed. a transport area for accommodating a person to be transported; transport means, namely movable pallets or movable steps, adapted for conveying the person located in the transport area in a standing manner; drive means adapted for driving the transport means; wherein during normal operation modus the drive means are operated at a normal speed; at least one image recording device for creating visual images (11, 12) of at least a sector of the transport area, wherein based on the recorded images (11, 12) a movement of the person within the transport area is analysed and based upon the result of the analysis the control unit is transferred into a safety modus, wherein the analyse performs a first evaluation, and if the first evaluation leads to the result, that the person is falling at a falling time (t_B), the control unit is transferred into an intermediate modus, wherein in the intermediate modus a second evaluation is performed; and if the second evaluation leads to the result, that the fallen person is standing up again at a stand up time (t_D), the control unit is transferred into normal operation modus in case that the second evaluation time (t_D) fulfils a predetermined condition, otherwise the control unit is transferred into the safety modus, and that in the safety modus drive means are stopped; characterized in that in the intermediate modus the drive means are operated at a reduced speed.
A tactile feedback apparatus, comprising a tactile feedback substrate and a controller, wherein the tactile feedback substrate comprises a base substrate, a first electrode layer, a piezoelectric layer, and a second electrode layer that are laminated sequentially; wherein a plurality of electrode pairs arranged sequentially along a row direction are formed in a portion where the first electrode layer and the second electrode layer overlap with each other; and the electrode pair extends along a column direction; the controller is configured to be capable of determining one driving mode from a plurality of driving modes as a target driving mode; characterized in that in any of the driving modes, the electrode pairs are combined to form a plurality of driving units adjoined in sequence along the row direction, each of the driving units comprises a same number of electrode pairs adjoined in sequence; the number of the electrode pairs in the driving unit is different in different driving modes; and the controller is further configured to drive one or more of the driving units of the target driving mode, wherein driving any of the driving units comprises loading a same driving signal to each of the electrode pairs of the driving unit. the tactile feedback substrate comprises a base substrate, a first electrode layer, a piezoelectric layer, and a second electrode layer that are laminated sequentially; wherein a plurality of electrode pairs arranged sequentially along a row direction are formed in a portion where the first electrode layer and the second electrode layer overlap with each other; and the electrode pair extends along a column direction; the controller is configured to be capable of determining one driving mode from a plurality of driving modes as a target driving mode; characterized in that in any of the driving modes, the electrode pairs are combined to form a plurality of driving units adjoined in sequence along the row direction, each of the driving units comprises a same number of electrode pairs adjoined in sequence; the number of the electrode pairs in the driving unit is different in different driving modes; and the controller is further configured to drive one or more of the driving units of the target driving mode, wherein driving any of the driving units comprises loading a same driving signal to each of the electrode pairs of the driving unit.
An annular adsorber element for a fresh air system of an internal combustion engine, in particular of a motor vehicle, for adsorbing hydrocarbons, - wherein a support structure is arranged at an adsorber material, - wherein the adsorber material extends cylindrically and defines a cylinder having a cylindrical inner contour and a cylindrical outer contour, characterized in - that the support structure consists of plastic and is injection molded onto the adsorber material, - that the injection-molded support structure is integrated in the cylinder, - that the support structure extends radially through the cylinder. - wherein a support structure is arranged at an adsorber material, - wherein the adsorber material extends cylindrically and defines a cylinder having a cylindrical inner contour and a cylindrical outer contour, - that the support structure consists of plastic and is injection molded onto the adsorber material, - that the injection-molded support structure is integrated in the cylinder, - that the support structure extends radially through the cylinder.
A method comprising: determining a resistance value for a loss compensation resistor (R i), the resistance value representing a plurality of electro-magnetic losses of an induction machine, the resistance value being determined from an inverse resistance value, where the inverse resistance value is based on a speed-based offset, a speed based slope and a slip speed; updating at least one control equation based on an equivalent circuit using the resistance value; and controlling the induction machine based on the updated at least one control equation. determining a resistance value for a loss compensation resistor (R i), the resistance value representing a plurality of electro-magnetic losses of an induction machine, the resistance value being determined from an inverse resistance value, where the inverse resistance value is based on a speed-based offset, a speed based slope and a slip speed; updating at least one control equation based on an equivalent circuit using the resistance value; and controlling the induction machine based on the updated at least one control equation.