mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid injecting container for storing liquid and injecting the liquid into a refillable device, comprising: a hollow housing having an open end configured for connecting the refillable device; a sealing component in the open end , wherein the sealing component defines at least one liquid outlet through which the liquid stored in the liquid injecting container can flow out; and a rotating body in the open end , wherein the rotating body defines a liquid passage therein; characterized in that the rotating body is configured to rotate relative to the sealing component , the sealing component defines at least one liquid outlet, the rotating body is capable of rotating driven by the refillable device between a first position where the liquid outlet is misaligned with the liquid passage such that the liquid in the liquid storage container cannot flow out into the refillable device, and a second position where the liquid outlet aligns with the liquid passage such that the liquid in the liquid injecting container can flow out into the refillable device; wherein the liquid injecting container further comprises a connection holder in the open end, wherein the connection holder is configured for connecting with the refillable device, and the rotating body and the sealing component are assembled in the connection holder; wherein the connection holder defines a receiving chamber for receiving the refillable device, the receiving chamber comprises a protruding part on an inner wall, and the protruding part is configured for coupling with the refillable device to form a snap-fit connection. a hollow housing having an open end configured for connecting the refillable device; a sealing component in the open end , wherein the sealing component defines at least one liquid outlet through which the liquid stored in the liquid injecting container can flow out; and a rotating body in the open end , wherein the rotating body defines a liquid passage therein; characterized in that the rotating body is configured to rotate relative to the sealing component , the sealing component defines at least one liquid outlet, the rotating body is capable of rotating driven by the refillable device between a first position where the liquid outlet is misaligned with the liquid passage such that the liquid in the liquid storage container cannot flow out into the refillable device, and a second position where the liquid outlet aligns with the liquid passage such that the liquid in the liquid injecting container can flow out into the refillable device; wherein the liquid injecting container further comprises a connection holder in the open end, wherein the connection holder is configured for connecting with the refillable device, and the rotating body and the sealing component are assembled in the connection holder; wherein the connection holder defines a receiving chamber for receiving the refillable device, the receiving chamber comprises a protruding part on an inner wall, and the protruding part is configured for coupling with the refillable device to form a snap-fit connection.
A method of providing a metal wire to a welding torch attached to a fixed main frame support , comprising the steps of: advancing an amount of the metal wire from a wire supply source through a guide so that a distal end of the metal wire is positioned in a heat source emitted by a welding torch; detecting the position of the distal end of the metal wire relative to the heat source emitted by the welding torch; and being characterised by the following: adjusting the position of the distal end of the metal wire relative to the heat source emitted by the welding torch by repositioning an adjustable frame to which the guide is attached, wherein the adjustable frame is rotatably attached to the fixed main frame support by a holding unit that includes a support containing a rotatable support piston engaged with a pivot joint , and a connector connected to the rotatable support piston and pivotably supporting the rotatable support piston, the support fixedly attached to the fixed main support frame , so that the adjustable frame is rotatably attached by the pivot point to the fixed main support frame and the repositioning comprises repositioning the adjustable frame closer to or further from the fixed main support frame . advancing an amount of the metal wire from a wire supply source through a guide so that a distal end of the metal wire is positioned in a heat source emitted by a welding torch; detecting the position of the distal end of the metal wire relative to the heat source emitted by the welding torch; and being characterised by the following: adjusting the position of the distal end of the metal wire relative to the heat source emitted by the welding torch by repositioning an adjustable frame to which the guide is attached, wherein the adjustable frame is rotatably attached to the fixed main frame support by a holding unit that includes a support containing a rotatable support piston engaged with a pivot joint , and a connector connected to the rotatable support piston and pivotably supporting the rotatable support piston, the support fixedly attached to the fixed main support frame , so that the adjustable frame is rotatably attached by the pivot point to the fixed main support frame and the repositioning comprises repositioning the adjustable frame closer to or further from the fixed main support frame .
Polymeric material that is at least partially biodegradable and at least partially biosourced, characterised in that it comprises, in percentage by mass expressed relative to the total mass of said material, at least: a) between 10% and 80% of a matrix comprising at least one polyester chosen from the group consisting of polybutylene succinate (abbreviated PBS), polybutylene terephthalate (abbreviated PBT), polybutylene succinate co-adipate (abbreviated PBSA), polymethylene adipate/terephthalate (abbreviated PTMAT), polyethylene isosorbide terephthalate (abbreviated PEIT) and polybutylene succinate-co-terephthalate (abbreviated PBST); b) between 10% and 80% of at least one biodegradable and biosourced reinforcement agent; c) between 0.5% and 5% of at least one ionic liquid, characterised in that the ionic liquid is a eutectic mixture DES (Deep Eutectic Solvents) comprising at least one organic cation salt and at least one other compound in proportions forming a eutectic mixture. a) between 10% and 80% of a matrix comprising at least one polyester chosen from the group consisting of polybutylene succinate (abbreviated PBS), polybutylene terephthalate (abbreviated PBT), polybutylene succinate co-adipate (abbreviated PBSA), polymethylene adipate/terephthalate (abbreviated PTMAT), polyethylene isosorbide terephthalate (abbreviated PEIT) and polybutylene succinate-co-terephthalate (abbreviated PBST); b) between 10% and 80% of at least one biodegradable and biosourced reinforcement agent; c) between 0.5% and 5% of at least one ionic liquid, characterised in that the ionic liquid is a eutectic mixture DES (Deep Eutectic Solvents) comprising at least one organic cation salt and at least one other compound in proportions forming a eutectic mixture.
Process for semi-permanent hair straightening, comprising the following steps performed in this order: (a) application of a hair straightening composition onto the hair, preferably in a weight ratio of hair to composition of 0.5:2 to 2:0.5; (b) leaving the composition on the hair for 5 to 120 minutes; (c) optionally rinsing off the hair; (d) drying the hair; (e) treating the hair with an iron having a surface temperature of 180 ± 50°C, preferably 170 to 200°C, and (f) optionally rinsing off and/or shampooing the hair and drying, wherein the hair straightening composition has a pH of 4 or less and comprises: glyoxylic acid and/or a hydrate thereof and/or a salt thereof; and - at least one quaternary ammonium salt having two C 5-24 linear or branched, saturated or unsaturated hydrocarbon groups in the molecule, which may be the same or different and may be optionally substituted with one or more substituents selected from halogen, hydroxyl, amino and C 1 -C 4 alkoxy; and - wherein the following compositions are excluded: Glyoxylic acid as aqueous 50% solution 10 16 16 Lactic acid 2.5 2.5 Myristyl alcohol 0.4 0.4 0.4 Cetyl alcohol 4.5 4.5 4.5 Myristyl/cetyl/stearyl myristate/palmitate/stearate mixture 1 1 1 Cetyltrimethylammonium chloride as an aqueous 25% solution 2.5 2.5 2.5 Behenyltrimethylammonium chloride as a 79% solution in water/isopropanol 0.6 0.6 0.6 Dipalmitoylethylhydroxyethylmethyl-ammonium methosulfate /cetearyl alcohol 1 1 1 Fragrance 0.5 0.7 0.7 Sodium hydroxide qs pH 2.2 qs pH 2.2 qs pH 2.2 Water qs 100 g qs 100 g qs 100 g - and wherein the process does not include the application of an alkaline relaxer. (a) application of a hair straightening composition onto the hair, preferably in a weight ratio of hair to composition of 0.5:2 to 2:0.5; (b) leaving the composition on the hair for 5 to 120 minutes; (c) optionally rinsing off the hair; (d) drying the hair; (e) treating the hair with an iron having a surface temperature of 180 ± 50°C, preferably 170 to 200°C, and (f) optionally rinsing off and/or shampooing the hair and drying, - at least one quaternary ammonium salt having two C 5-24 linear or branched, saturated or unsaturated hydrocarbon groups in the molecule, which may be the same or different and may be optionally substituted with one or more substituents selected from halogen, hydroxyl, amino and C 1 -C 4 alkoxy; and - wherein the following compositions are excluded: Glyoxylic acid as aqueous 50% solution 10 16 16 Lactic acid 2.5 2.5 Myristyl alcohol 0.4 0.4 0.4 Cetyl alcohol 4.5 4.5 4.5 Myristyl/cetyl/stearyl myristate/palmitate/stearate mixture 1 1 1 Cetyltrimethylammonium chloride as an aqueous 25% solution 2.5 2.5 2.5 Behenyltrimethylammonium chloride as a 79% solution in water/isopropanol 0.6 0.6 0.6 Dipalmitoylethylhydroxyethylmethyl-ammonium methosulfate /cetearyl alcohol 1 1 1 Fragrance 0.5 0.7 0.7 Sodium hydroxide qs pH 2.2 qs pH 2.2 qs pH 2.2 Water qs 100 g qs 100 g qs 100 g - and wherein the process does not include the application of an alkaline relaxer.
A kit of parts for preparing a glass ionomer composition for dental use, the kit comprising a Paste A and a Paste B, Paste A comprising: water, acid-reactive inorganic filler A, non acid-reactive filler B1, sugar alcohol with 6 hydroxyl moieties, Paste B comprising: water, polyacid, non acid-reactive filler B2, the ratio of sugar alcohol to water in Paste A being in a range of 1:10 to 1:3 in parts by weight, the sugar alcohol being present in an amount of not more than 2 wt.% and the water being present in an amount of not more than 15 wt.%, wt.% with respect to the whole composition obtained when mixing Paste A and Paste B. Paste A comprising: water, acid-reactive inorganic filler A, non acid-reactive filler B1, sugar alcohol with 6 hydroxyl moieties, water, acid-reactive inorganic filler A, non acid-reactive filler B1, sugar alcohol with 6 hydroxyl moieties, Paste B comprising: water, polyacid, non acid-reactive filler B2, water, polyacid, non acid-reactive filler B2, the ratio of sugar alcohol to water in Paste A being in a range of 1:10 to 1:3 in parts by weight, the sugar alcohol being present in an amount of not more than 2 wt.% and the water being present in an amount of not more than 15 wt.%, wt.% with respect to the whole composition obtained when mixing Paste A and Paste B.
A burner , comprising: an oxygen supply tube and a burner tip , characterised in that the oxygen supply tube and the burner tip define a concave face ; wherein the burner tip defines a main oxygen nozzle having a parabolic shape. an oxygen supply tube and a burner tip , characterised in that the oxygen supply tube and the burner tip define a concave face ; wherein the burner tip defines a main oxygen nozzle having a parabolic shape.
A ceramic-inorganic material composite for a multilayer inductor , which is located in a magnetic core area of metal electrode tracks present in a pattern of coils and comprises two or more first layers and second layers , wherein the first layers comprise a ceramic material having a positive slope in a curve of the dielectric constant versus temperature, the second layers comprise an inorganic material having a negative slope in a curve of the dielectric constant versus temperature, and the first layers and the second layers are stacked on each other in an alternating manner.
A method performed by a network node for Packet Data Convergence Protocol, PDCP, reordering, wherein the network node is operating in a wireless communications network , and wherein the method comprises: - buffering in order one or more first data units received out of order by a PDCP layer, wherein the one or more first data units are received from a lower layer during a first time period, and wherein the lower layer is a layer below the PDCP layer; - when the first time period has expired, forwarding the one or more buffered first data units in order to an upper layer wherein the upper layer is a layer above the PDCP layer; - forwarding , to the upper layer and in any order, one or more second data units received from the lower layer during the second time period, whereby the one or more second data units arriving too late to the PDCP layer to be buffered in order is forwarded to the upper layer in time for a reordering functionality of the upper layer; the method being further characterized by : when the first time period has expired starting a second time period; - upon expiration of the second time period, moving a lower end of a receiving window forward to a sequence number N+1, wherein the second time period was started at a sequence number N, and wherein the receiving window comprises the first time period and the second time period. - buffering in order one or more first data units received out of order by a PDCP layer, wherein the one or more first data units are received from a lower layer during a first time period, and wherein the lower layer is a layer below the PDCP layer; - when the first time period has expired, forwarding the one or more buffered first data units in order to an upper layer wherein the upper layer is a layer above the PDCP layer; - forwarding , to the upper layer and in any order, one or more second data units received from the lower layer during the second time period, whereby the one or more second data units arriving too late to the PDCP layer to be buffered in order is forwarded to the upper layer in time for a reordering functionality of the upper layer; the method being further characterized by : when the first time period has expired starting a second time period; - upon expiration of the second time period, moving a lower end of a receiving window forward to a sequence number N+1, wherein the second time period was started at a sequence number N, and wherein the receiving window comprises the first time period and the second time period.
A method for laying a power transmission conductor , the power transmission conductor being laid in an enclosure, characterized by comprising steps of: acquiring changing situations of a surface heat transfer coefficient of an outer surface, in contact with a windward side incoming flow, of a shady side of the enclosure according to airflow parameters outside the enclosure; determining a target laying position according to an inside position, corresponding to a highest surface heat transfer coefficient, of the shady side; and laying the power transmission conductor at the target laying position. acquiring changing situations of a surface heat transfer coefficient of an outer surface, in contact with a windward side incoming flow, of a shady side of the enclosure according to airflow parameters outside the enclosure; determining a target laying position according to an inside position, corresponding to a highest surface heat transfer coefficient, of the shady side; and laying the power transmission conductor at the target laying position.
A method for monitoring and controlling an access control system , comprising at least one server and at least one access control device , which can be connected to the at least one server for the purpose of data communication, smart glasses being used for monitoring and controlling the access control system, which is connected wirelessly to the at least one server of the access control system and the at least one access control device for the purpose of data communication and receives data from the at least one server and/or the at least one access control device in real time, which data enable the monitoring of the access control system , it being possible to display these data to the user of the smart glasses by means of a display device of the smart glasses , it being possible to control the access control system by control commands, which can be input by means of the smart glasses and are transmitted to the at least one server and/or to the at least one access control device , the control commands being input by means of voice control via a microphone integrated into the smart glasses , by means of gesture control via a camera integrated into the smart glasses or by means of eye tracking, characterized in that access control is carried out by means of the smart glasses , wherein, for this purpose, access authorizations comprising a bar code are read out by means of the camera integrated in the smart glasses or access authorizations based on Bluetooth low energy (BLE) or RFID standards are read out by means of a Bluetooth low energy module integrated into the smart glasses or an HF or UHF RFID reading device integrated into the smart glasses , wherein the analysis of the validity of the access authorizations in the smart glasses takes place by means of bar-code reading software or software for analysing RFID or Bluetooth-low-energy (BLE) access authorizations and a white/black list stored in a storage means of the smart glasses , which is updated by at least one server at regular intervals or by means of a corresponding control on the part of the user, or wherein the image of the bar code or the read-out information of the RFID or Bluetooth-low-energy (BLE) access authorizations is transmitted to the at least one server and access is granted or denied on the basis of the analysis with respect to the validity of the access authorization, which took place in the smart glasses or on the server .
A vehicle speed sensor device, comprising: a rechargeable battery ; a speed sensor configured to receive power from the battery and measure a rotational speed of a wheel bearing to generate a speed signal; a wireless signal transmitter configured to transmit the speed signal to an electronic controller through wireless communication; a self-generator configured to be able to generate power from rotation of the wheel bearing and charge the battery using the generated power; and an external power supply module configured to supply power to the battery ; wherein the external power supply module comprises a capacitor capable of storing the power generated by the self-generator ; and the capacitor is configured to charge the battery when an output current of the self-generator is less than or equal to a predetermined value, characterized in that : the external power supply module further comprises a first wireless power transceiver connected to the capacitor and configured to transmit the power of the capacitor in a wireless manner; and the vehicle speed sensor device further comprises a second wireless power transceiver configured to receive the power from the first wireless power transceiver provided in the external power supply module in a wireless manner and charge the battery using the received power. a rechargeable battery ; a speed sensor configured to receive power from the battery and measure a rotational speed of a wheel bearing to generate a speed signal; a wireless signal transmitter configured to transmit the speed signal to an electronic controller through wireless communication; a self-generator configured to be able to generate power from rotation of the wheel bearing and charge the battery using the generated power; and an external power supply module configured to supply power to the battery ; wherein the external power supply module comprises a capacitor capable of storing the power generated by the self-generator ; and the capacitor is configured to charge the battery when an output current of the self-generator is less than or equal to a predetermined value, characterized in that : the external power supply module further comprises a first wireless power transceiver connected to the capacitor and configured to transmit the power of the capacitor in a wireless manner; and the vehicle speed sensor device further comprises a second wireless power transceiver configured to receive the power from the first wireless power transceiver provided in the external power supply module in a wireless manner and charge the battery using the received power. the external power supply module further comprises a first wireless power transceiver connected to the capacitor and configured to transmit the power of the capacitor in a wireless manner; and the vehicle speed sensor device further comprises a second wireless power transceiver configured to receive the power from the first wireless power transceiver provided in the external power supply module in a wireless manner and charge the battery using the received power.
Bead-apex storage system for handling a plurality of carriers , wherein each carrier is arranged to support a stack of bead-apexes stacked in a stacking direction and alternated with spacers (S) separating the bead-apexes from each other in said stacking direction, wherein the bead-apex storage system comprises a plurality of storage stations (A1-A8) for storing the carriers and a transfer station (T) for transferring one of the plurality of bead-apexes to a tire building machine, wherein the bead-apex storage system further comprises a spacer gripper for lifting one or more of the spacers (S) with bead-apexes supported thereon from one of the carriers in one of the plurality of storage stations and for carrying said one or more lifted spacers (S) to the transfer station, wherein the bead-apex storage system comprises a spacer gripper base for supporting the spacer gripper, characterized in that the spacer gripper base is movable from the transfer station (T) to any the plurality of storage stations (A1-A8).
A method for producing a porous fluorine-based resin composite membrane comprising the steps of: preparing a coating solution including a (co)polymer containing repeating units derived from a perfluoroalkyl acrylate having 1 to 10 carbon atoms and a perfluoroalkanoic acid having 3 to 10 carbon atoms, and coating the coating solution onto at least one surface of the porous fluorine-based resin layer and an outer surface of the pores. preparing a coating solution including a (co)polymer containing repeating units derived from a perfluoroalkyl acrylate having 1 to 10 carbon atoms and a perfluoroalkanoic acid having 3 to 10 carbon atoms, and coating the coating solution onto at least one surface of the porous fluorine-based resin layer and an outer surface of the pores.