mhurhangee/ep-ind-claims huggingface dataset:
An anhydrous shampoo composition comprising: propanediol; and surfactant consisting of two or more surfactants, selected from (a) sodium cocoyl isethionate, and (b) at least one of sodium lauroyl methyl isethionate and sodium cocoyl methyl isethionate, wherein no additional surfactants are present, wherein the shampoo composition is free of added preservatives, wherein the shampoo composition is a cream, and wherein the shampoo composition has a viscosity of 120,000 mPa.s (cps) 3,000,000 mPa.s (cps). propanediol; and surfactant consisting of two or more surfactants, selected from (a) sodium cocoyl isethionate, and (b) at least one of sodium lauroyl methyl isethionate and sodium cocoyl methyl isethionate, wherein no additional surfactants are present, wherein the shampoo composition is free of added preservatives, wherein the shampoo composition is a cream, and wherein the shampoo composition has a viscosity of 120,000 mPa.s (cps) 3,000,000 mPa.s (cps).
A mobile terminal (100; 200; 300; 400) comprising: a display (151; 251; 351; 451); and a controller (180; 480) configured to: cause the display to display a plurality of videos captured by a 360-degree camera (121; 321; 421); generate a 360-degree video by combining or stitching the plurality of videos; and cause the display to display a stitching region corresponding to a focused photographing object when the focused photographing object included in the 360-degree video is placed in the stitching region that is a boundary region in which at least two of the plurality of videos are connected, wherein the controller is further configured to provide notification when the focused photographing object approaches the stitching region by turning of the 360-degree camera. a display (151; 251; 351; 451); and a controller (180; 480) configured to: cause the display to display a plurality of videos captured by a 360-degree camera (121; 321; 421); generate a 360-degree video by combining or stitching the plurality of videos; and cause the display to display a stitching region corresponding to a focused photographing object when the focused photographing object included in the 360-degree video is placed in the stitching region that is a boundary region in which at least two of the plurality of videos are connected, cause the display to display a plurality of videos captured by a 360-degree camera (121; 321; 421); generate a 360-degree video by combining or stitching the plurality of videos; and cause the display to display a stitching region corresponding to a focused photographing object when the focused photographing object included in the 360-degree video is placed in the stitching region that is a boundary region in which at least two of the plurality of videos are connected, wherein the controller is further configured to provide notification when the focused photographing object approaches the stitching region by turning of the 360-degree camera.
Use of a viscolelastic composition for well bore treatment the composition comprising water and a polycationic carboxylate of the following general formula: wherein R 2, R 3, R 4, and R 5 are independently selected from the group consisting of: (a) hydrocarbyl groups having from 1 to 4 carbon atoms; and (b) substituted hydrocarbyl groups having from 1 to 4 carbon atoms: or alternatively wherein R 2 and R 3 are members of a heterocyclic ring, and R 4 and R 5 are members of a different heterocyclic ring or are independently selected from group (a) as defined above or group (b) as defined above; wherein R 1 and R 6 are independently selected from hydrocarbyl groups or substituted hydrocarbyl groups, wherein the hydrocarbyl groups or substituted hydrocarbyl groups have from 13 to 40 carbon atoms and comprise carboxamides, carboximides, polycarboxamides, polycarboximides, carboxamidines, carboximidines, carboxylic esters, polycarboxylic esters, carboxylic acids, polycarboxylic acids, carboxylates, polycarboxylates, or combinations thereof; wherein R 7 is a carboxylate anion containing from 2 to 24 carbon atoms; and wherein A 1 - and A 2 - are independently selected from the group consisting of: (i) negatively charged inorganic ions; (ii) organic molecules with one or more negatively charged functional groups; and (iii) negatively charged functional groups which are part of R 2, R 3, R 4, R 5 or R 7. (a) hydrocarbyl groups having from 1 to 4 carbon atoms; and (b) substituted hydrocarbyl groups having from 1 to 4 carbon atoms: or alternatively wherein R 2 and R 3 are members of a heterocyclic ring, and R 4 and R 5 are members of a different heterocyclic ring or are independently selected from group (a) as defined above or group (b) as defined above; (i) negatively charged inorganic ions; (ii) organic molecules with one or more negatively charged functional groups; and (iii) negatively charged functional groups which are part of R 2, R 3, R 4, R 5 or R 7.
Electric fitting for material flow coordination between several stand-alone operable conveyors for conveying piece goods, comprising the individual conveyors (1 to 4) and intelligent motor starters (M1 to M4) assigned to the individual conveyors (1 to 4), each of which join a self-sustaining entity comprising logical modules, which are independent of a higher-order logic and which can be programmed in accordance with the properties of the conveyor (1 to 4) with the functions required for material flow coordination, characterised in that the various conveyors can be connected to one another, without the need for individual adjustments, for instance in a programmable logic controller, to software and hardware.
A method performed by a user equipment, LTE, performing early data transmission, EDT, in a wireless communication system, the method comprising: moving into a radio resource control, RRC, idle state; receiving, by the UE which is in the RRC idle state from a base station, BS, system information which informs the UE that the EDT is allowed; triggering the EDT based on a request of an RRC connection resume related to the EDT; transmitting, to the BS, a random access preamble which is configured for the EDT; receiving a random access response, RAR, message from the BS; in response to the RAR message, transmitting, to the BS, an RRC connection resume request message which includes user data for the EDT, based on the system information; characterized in that: in response to the RRC connection resume request message, receiving, from the BS, an RRC connection release message indicating that the user data are acknowledged or an RRC connection reject message not indicating that the user data are acknowledged; based on receiving the RRC connection release message, considering that transmission of the user data is successful, and entering the RRC idle state; and based on receiving the RRC connection reject message, considering that transmission of the user data is unsuccessful, and entering the RRC idle state. moving into a radio resource control, RRC, idle state; receiving, by the UE which is in the RRC idle state from a base station, BS, system information which informs the UE that the EDT is allowed; triggering the EDT based on a request of an RRC connection resume related to the EDT; transmitting, to the BS, a random access preamble which is configured for the EDT; receiving a random access response, RAR, message from the BS; in response to the RAR message, transmitting, to the BS, an RRC connection resume request message which includes user data for the EDT, based on the system information; characterized in that: in response to the RRC connection resume request message, receiving, from the BS, an RRC connection release message indicating that the user data are acknowledged or an RRC connection reject message not indicating that the user data are acknowledged; based on receiving the RRC connection release message, considering that transmission of the user data is successful, and entering the RRC idle state; and based on receiving the RRC connection reject message, considering that transmission of the user data is unsuccessful, and entering the RRC idle state. in response to the RRC connection resume request message, receiving, from the BS, an RRC connection release message indicating that the user data are acknowledged or an RRC connection reject message not indicating that the user data are acknowledged; based on receiving the RRC connection release message, considering that transmission of the user data is successful, and entering the RRC idle state; and based on receiving the RRC connection reject message, considering that transmission of the user data is unsuccessful, and entering the RRC idle state.
A method performed by a data consumer network function, NFc (510, 610, 1008, 1200, 1402) of a communication network (198, 200, 1002), the method comprising: sending, to a data producer network function, NFp (530, 630, 1008, 1200, 1402) of the communication network, a first request for first data produced by the NFp and stored in a data repository function, DRF (520, 620, 1008, 1200, 1402) of the communication network; receiving, from the NFp, a response that includes an indication that the NFc is authorized to access the first data stored in the DRF; sending, to the DRF, a second request for the first data, wherein the second request includes the indication that the NFc is authorized to access the first data stored in the DRF; and receiving the first data from the DRF in response to the second request. sending, to a data producer network function, NFp (530, 630, 1008, 1200, 1402) of the communication network, a first request for first data produced by the NFp and stored in a data repository function, DRF (520, 620, 1008, 1200, 1402) of the communication network; receiving, from the NFp, a response that includes an indication that the NFc is authorized to access the first data stored in the DRF; sending, to the DRF, a second request for the first data, wherein the second request includes the indication that the NFc is authorized to access the first data stored in the DRF; and receiving the first data from the DRF in response to the second request.
An injector comprising: a) an injector body (24, 26) defining a longitudinal axis; b) a fluid circuit defined in the injector body, the fluid circuit including at least one flow channel (62a;62b) defined in a cylindrical region around the longitudinal axis and being in fluid communication with an orifice for passage of fluids out from the flow channel (62a; 62b) into a radial direction with respect to the longitudinal axis, wherein the fluid circuit includes at least a second flow channel defined in the cylindrical region around the longitudinal axis of the injector body so that said first an second flow channels oppose one another at a junction with the orifice; and characterised by c) a flow splitter defined in each of said flow channels (62a; 62b) proximate the orifice, for splitting the flow into two branches (84a, 84b) the flow splitter being configured and adapted to mitigate formation of swirling flow on fluids passing through the orifice from the flow channel, wherein each flow channel includes a bend therein extending from the orifice to a point upstream of the orifice, and wherein the flow splitter extends longitudinally through a majority of the bend in the flow channel (62a; 62b). a) an injector body (24, 26) defining a longitudinal axis; b) a fluid circuit defined in the injector body, the fluid circuit including at least one flow channel (62a;62b) defined in a cylindrical region around the longitudinal axis and being in fluid communication with an orifice for passage of fluids out from the flow channel (62a; 62b) into a radial direction with respect to the longitudinal axis, wherein the fluid circuit includes at least a second flow channel defined in the cylindrical region around the longitudinal axis of the injector body so that said first an second flow channels oppose one another at a junction with the orifice; and characterised by c) a flow splitter defined in each of said flow channels (62a; 62b) proximate the orifice, for splitting the flow into two branches (84a, 84b) the flow splitter being configured and adapted to mitigate formation of swirling flow on fluids passing through the orifice from the flow channel, wherein each flow channel includes a bend therein extending from the orifice to a point upstream of the orifice, and wherein the flow splitter extends longitudinally through a majority of the bend in the flow channel (62a; 62b).
A shovel comprising: a lower-part running body; an upper-part turning body performing a turning operation on the lower-part turning body; a boom having one end rotatably attached to the upper-part turning body; an arm having one end rotatably attached to the other end of the boom; a working element rotatably attached to the other end of the arm; an engine mounted on said upper-part turning body and generating a drive power; a generator mounted on said upper-part turning body and performing a generating operation using the drive power transmitted from said engine; an electric accumulator mounted to said upper-part turning body and having a plurality of electric storage cells (19-1 to 19-n) in which an electric power generated by said generator is accumulated; characterized by: an equalizing circuit provided to each electric storage cell (19-1 to 19-n), and including a discharge resistor (148-1 to 148-n) and a switching circuit (146-1 to 146-n), and a capacitance computing part that computes a capacitance of each electric storage cell (19-1 to 19-n) as an output by activating said equalizing circuit; wherein, when there is a variation in outputs of said electric storage cells (19-1 to 19-n), the equalizing circuit is activated. a lower-part running body; an upper-part turning body performing a turning operation on the lower-part turning body; a boom having one end rotatably attached to the upper-part turning body; an arm having one end rotatably attached to the other end of the boom; a working element rotatably attached to the other end of the arm; an engine mounted on said upper-part turning body and generating a drive power; a generator mounted on said upper-part turning body and performing a generating operation using the drive power transmitted from said engine; an electric accumulator mounted to said upper-part turning body and having a plurality of electric storage cells (19-1 to 19-n) in which an electric power generated by said generator is accumulated; characterized by: an equalizing circuit provided to each electric storage cell (19-1 to 19-n), and including a discharge resistor (148-1 to 148-n) and a switching circuit (146-1 to 146-n), and a capacitance computing part that computes a capacitance of each electric storage cell (19-1 to 19-n) as an output by activating said equalizing circuit; wherein, when there is a variation in outputs of said electric storage cells (19-1 to 19-n), the equalizing circuit is activated. an equalizing circuit provided to each electric storage cell (19-1 to 19-n), and including a discharge resistor (148-1 to 148-n) and a switching circuit (146-1 to 146-n), and a capacitance computing part that computes a capacitance of each electric storage cell (19-1 to 19-n) as an output by activating said equalizing circuit; wherein, when there is a variation in outputs of said electric storage cells (19-1 to 19-n), the equalizing circuit is activated.
A circuit protection device for use in monitoring an alternating, henceforth termed AC, current flowing from an electrical distribution line through a trip mechanism to a load said circuit protection device comprising: an input conductor configured to receive the AC current signal from a sensor, at least one resistor coupled to said input conductor, said at least one resistor arranged to receive the AC current signal and configured to provide an AC voltage signal proportional to the current signal; a control circuit coupled in parallel with said at least one resistor and configured to: receive the AC voltage signal; determine an amplitude of the AC current flowing through the trip mechanism based on the voltage signal; determine whether a predetermined current threshold is exceeded; and generate a control signal to activate the trip mechanism; and a power supply coupled to said at least one resistor and configured to: receive the AC current signal from said at least one resistor, and convert the current signal to direct current, henceforth termed DC, and supply DC power to said control circuit using the converted current signal. an input conductor configured to receive the AC current signal from a sensor, at least one resistor coupled to said input conductor, said at least one resistor arranged to receive the AC current signal and configured to provide an AC voltage signal proportional to the current signal; a control circuit coupled in parallel with said at least one resistor and configured to: receive the AC voltage signal; determine an amplitude of the AC current flowing through the trip mechanism based on the voltage signal; determine whether a predetermined current threshold is exceeded; and generate a control signal to activate the trip mechanism; and receive the AC voltage signal; determine an amplitude of the AC current flowing through the trip mechanism based on the voltage signal; determine whether a predetermined current threshold is exceeded; and generate a control signal to activate the trip mechanism; and a power supply coupled to said at least one resistor and configured to: receive the AC current signal from said at least one resistor, and convert the current signal to direct current, henceforth termed DC, and supply DC power to said control circuit using the converted current signal. receive the AC current signal from said at least one resistor, and convert the current signal to direct current, henceforth termed DC, and supply DC power to said control circuit using the converted current signal.
A downhole tool, for removing sections of metal tubing, comprising: - at least one conductive element being arranged to corrode a section of metal tubing using an electrolytic process, said conductive element being a tube or pipe, which is made of electric conductive material, such as steel, stainless steel, aluminum, copper, titanium or graphite, - an apparatus to establish a connection to the metal tubing, and - a milling apparatus with cutting or abrasive elements arranged to remove byproducts from the electrolytic process, - characterized in that said conductive element is shaped to control the acceleration of corrosion at different positions of the metal tubing with patterns to optimize the ratio between the metal tubing and the conductive element areas, in that the tube or pipe comprises longitudinal grooves (26,27,28) or helical grooves (30,31), or combinations thereof. - at least one conductive element being arranged to corrode a section of metal tubing using an electrolytic process, said conductive element being a tube or pipe, which is made of electric conductive material, such as steel, stainless steel, aluminum, copper, titanium or graphite, - an apparatus to establish a connection to the metal tubing, and - a milling apparatus with cutting or abrasive elements arranged to remove byproducts from the electrolytic process, - characterized in that said conductive element is shaped to control the acceleration of corrosion at different positions of the metal tubing with patterns to optimize the ratio between the metal tubing and the conductive element areas, in that the tube or pipe comprises longitudinal grooves (26,27,28) or helical grooves (30,31), or combinations thereof.
Method for adjusting the volume of audio signals of different volume, in particular of stored music files from different audio sources (2, 3, 4), which are reproduced after one another as a sound sequence, characterised by the steps: - specification of a target volume for all audio signals to be reproduced after one another, - determination of the volume of an audio signal in a first phase of its reproduction, wherein - the volume of the audio signal is determined, in order to compare this with the target volume, - application of dynamic compression to the audio signal, wherein the dynamic range of the audio signal is reduced, during this first phase, after completion of determining the volume during the first phase increasing or reducing the volume for adjustment to the target volume during a second phase, and - termination of the application of compression to the audio signal on the transition from the first phase to the second phase. - specification of a target volume for all audio signals to be reproduced after one another, - determination of the volume of an audio signal in a first phase of its reproduction, wherein - the volume of the audio signal is determined, in order to compare this with the target volume, - application of dynamic compression to the audio signal, wherein the dynamic range of the audio signal is reduced, during this first phase, after completion of determining the volume during the first phase increasing or reducing the volume for adjustment to the target volume during a second phase, and - termination of the application of compression to the audio signal on the transition from the first phase to the second phase.
Method for operating a camera (3, 4) of a motor vehicle, wherein a cover (10, 11) is moved between an operating position, in which the camera (3, 4) provides images of an environmental region (12, 13) of the motor vehicle, and a covering position, in which the cover (10, 11) covers the camera (3, 4) against the environmental region (12, 13), characterized by the following steps: - acquiring a current brightness level of a scene of the camera (3, 4) by means of the camera (3, 4), - in the operating position of the cover (10,11): adjusting at least one operating parameter of the camera (3, 4) depending on the current brightness level of the scene, - acquiring a movement operation of the cover (10, 11) from the operating position into the covering position by the camera (3, 4), and - after acquiring the movement operation: adjusting the at least one operating parameter to a value independent of the current brightness level of the scene acquired by the camera (3, 4), in particular whilst maintaining an activated operating state of the camera (3, 4). - acquiring a current brightness level of a scene of the camera (3, 4) by means of the camera (3, 4), - in the operating position of the cover (10,11): adjusting at least one operating parameter of the camera (3, 4) depending on the current brightness level of the scene, - acquiring a movement operation of the cover (10, 11) from the operating position into the covering position by the camera (3, 4), and - after acquiring the movement operation: adjusting the at least one operating parameter to a value independent of the current brightness level of the scene acquired by the camera (3, 4), in particular whilst maintaining an activated operating state of the camera (3, 4).