mhurhangee/ep-ind-claims huggingface dataset:
A cleaning robot comprising: a main body including a battery; a movement module moving the main body; a communication module configured to request identification information of charging devices (200, 200-1, 200-2, 200-3) occupied by other cleaning robots, from each cleaning robot occupying a charging device; and a controller configured to: determine whether there is a non-occupied charging device not occupied by any other cleaning robot based on the received identification information, and in the event that there is a non-occupied charging device, control the movement module to move the main body to the non-occupied charging device. a main body including a battery; a movement module moving the main body; a communication module configured to request identification information of charging devices (200, 200-1, 200-2, 200-3) occupied by other cleaning robots, from each cleaning robot occupying a charging device; and a controller configured to: determine whether there is a non-occupied charging device not occupied by any other cleaning robot based on the received identification information, and in the event that there is a non-occupied charging device, control the movement module to move the main body to the non-occupied charging device. determine whether there is a non-occupied charging device not occupied by any other cleaning robot based on the received identification information, and in the event that there is a non-occupied charging device, control the movement module to move the main body to the non-occupied charging device.
A solar charging control device that controls a charged state of a plurality of vehicles connected to each other via a power network, wherein each of the vehicles has a solar power generation device and the vehicles are configured to transmit and receive power via the power network in a vehicle sharing system that uses the vehicles, the solar charging control device comprising an electronic control device configured to set a vehicle among the vehicles as a charging target vehicle, and manage power transmission and reception via the power network so that the battery of the charging target vehicle is charged using generated power of the solar power generation device mounted in at least another vehicle in addition to the solar generated power of the charging target vehicle, characterized in that the electronic control device is further configured to receive a reservation for use of a vehicle among the vehicles, assign a vehicle among unused vehicles that are not lent to users to the received reservation, and set as the charging target vehicle, among the vehicles connected to the power network, the vehicle of which an amount of charging of a battery satisfies a predetermined condition and which has the earliest reserved use time. characterized in that the electronic control device is further configured to receive a reservation for use of a vehicle among the vehicles, assign a vehicle among unused vehicles that are not lent to users to the received reservation, and set as the charging target vehicle, among the vehicles connected to the power network, the vehicle of which an amount of charging of a battery satisfies a predetermined condition and which has the earliest reserved use time.
An X-ray source configured to emit X-ray radiation upon interaction between an electron beam (e) and a liquid jet target, the X-ray source comprising: an electron source comprising a cathode configured to emit electrons and an anode electrode configured to accelerate the emitted electrons to form the electron beam; an adjustment means configured to adjust a relative orientation between the anode electrode and the cathode of the electron source; a focusing means configured to focus the electron beam on the liquid jet target in accordance with a focusing setting; a beam orientation sensor arranged to generate a signal indicating an orientation of the electron beam relative to a sensor area; and a controller operably connected to the focusing means, the beam orientation sensor and the adjustment means; wherein the controller is configured to cause the adjustment means to adjust the relative orientation between the anode electrode and the cathode so that the signal received from the sensor changes within a pre-determined interval when the focusing setting is changed. an electron source comprising a cathode configured to emit electrons and an anode electrode configured to accelerate the emitted electrons to form the electron beam; an adjustment means configured to adjust a relative orientation between the anode electrode and the cathode of the electron source; a focusing means configured to focus the electron beam on the liquid jet target in accordance with a focusing setting; a beam orientation sensor arranged to generate a signal indicating an orientation of the electron beam relative to a sensor area; and a controller operably connected to the focusing means, the beam orientation sensor and the adjustment means; wherein the controller is configured to cause the adjustment means to adjust the relative orientation between the anode electrode and the cathode so that the signal received from the sensor changes within a pre-determined interval when the focusing setting is changed.
Packaging formed of a board material and comprising a base, a front panel,, a left side panel, a right side panel and a rear panel, wherein the front, left side, right side and rear panels extend upwardly from the base, the front panel at least partially adjoins the left side and right side panels, and wherein the rear panel joins the left side and right side panels; wherein the left side panel, the right side panel and the rear panel are each formed with a respective flap (23a, 23b, 23c) extending upwardly therefrom, wherein each flap is foldably connected to its respective panel and wherein the flaps of the left side, rear and right side panels are joined to form a continuous flap or rim; wherein the rear panel flap includes a fold line extending into the flap in a direction away from each corner adjacent the point at which the rear panel flap contacts the rear panel, a respective side panel (14, 15) and a respective side panel flap (23a, 23b); wherein the packaging is assembled such that the left side panel flap and the right side panel flap are folded inwardly by about 90° towards each other and the rear panel flap is reverse or outwardly folded by about 180° and attached to or locked into the rear panel; wherein at least an upper portion of the front panel is substantially open, defines an opening to the packaging and includes a wall to retain, in use, products within the packaging; and. wherein the rear panel flap includes a tab or tongue and wherein the rear panel is provided with a slot adapted to receive the tab or tongue; such that the tab or tongue is received by the slot to attach the rear panel flap to the rear panel. wherein the left side panel, the right side panel and the rear panel are each formed with a respective flap (23a, 23b, 23c) extending upwardly therefrom, wherein each flap is foldably connected to its respective panel and wherein the flaps of the left side, rear and right side panels are joined to form a continuous flap or rim; wherein the rear panel flap includes a fold line extending into the flap in a direction away from each corner adjacent the point at which the rear panel flap contacts the rear panel, a respective side panel (14, 15) and a respective side panel flap (23a, 23b); wherein the packaging is assembled such that the left side panel flap and the right side panel flap are folded inwardly by about 90° towards each other and the rear panel flap is reverse or outwardly folded by about 180° and attached to or locked into the rear panel; wherein at least an upper portion of the front panel is substantially open, defines an opening to the packaging and includes a wall to retain, in use, products within the packaging; and. wherein the rear panel flap includes a tab or tongue and wherein the rear panel is provided with a slot adapted to receive the tab or tongue; such that the tab or tongue is received by the slot to attach the rear panel flap to the rear panel.
A method for generating a nucleic acid product from a template RNA molecule, comprising after having obtained a template RNA a) annealing a first oligonucleotide primer at a preselected nucleic acid region of the template RNA, b) elongating the first oligonucleotide primer in a template specific manner thereby obtaining a first elongated strand, c) removing the RNA template, d) annealing more than one further oligonucleotide primers to the first elongated strand, e) elongating the more than one further oligonucleotide primers in a template specific manner without displacement of primers annealed to the first elongated strand by using a polymerase lacking strand displacement activity, preferably a T7, T4 or Q5 DNA polymerase, and/or by using primers having resistance to strand displacement by a polymerase, preferably primers having nucleotides with LNA or 2'fluor modifications, thereby generating further elongation products, wherein steps a) to e) are performed in one subsequently increasing fluid volume, f) isolating and/or amplifying an elongation product of said further elongation product comprising a nucleic acid portion that is elongated complementary to the first oligonucleotide primer. a) annealing a first oligonucleotide primer at a preselected nucleic acid region of the template RNA, b) elongating the first oligonucleotide primer in a template specific manner thereby obtaining a first elongated strand, c) removing the RNA template, d) annealing more than one further oligonucleotide primers to the first elongated strand, e) elongating the more than one further oligonucleotide primers in a template specific manner without displacement of primers annealed to the first elongated strand by using a polymerase lacking strand displacement activity, preferably a T7, T4 or Q5 DNA polymerase, and/or by using primers having resistance to strand displacement by a polymerase, preferably primers having nucleotides with LNA or 2'fluor modifications, thereby generating further elongation products, wherein steps a) to e) are performed in one subsequently increasing fluid volume, f) isolating and/or amplifying an elongation product of said further elongation product comprising a nucleic acid portion that is elongated complementary to the first oligonucleotide primer.
Apparatus for linking two sections of chain, that being intended for linking a first chain and a second chain under water, comprising a lower base, a guiding bracket for the second chain, and an assembly device and a locking device coupled to the lower base, characterised in that the apparatus is configured for vertically linking the first chain and the second chain, the lower base comprising an open cross-shaped slot into which the last link of said first chain is inserted, extending above said lower base, the guiding bracket being attached to the lower base over said slot, said guiding bracket containing, in use, an H-shaped shackle that is coupled to the last link of said second chain by means of a first bolt, the last link of the first chain being inserted in the free space in the shackle so that both chains (6,7) are coupled by means of a second bolt.
Rotating machine of the carousel type, comprising: - a rotating frame rotatable about an axis of rotation, - a plurality of workstations supported by the rotating frame, - a rotating electricity and fluid supply column, coaxial with the axis of rotation of the rotating frame, - at least one rotating electric collector, provided on said rotating column and connected to a fixed electrical power source, for supplying electricity to said workstations, and - at least one rotating fluid connection, provided on said rotating column and connected to a fixed fluid source, for supplying fluid to said workstations, the rotating fluid connection being located at the top of the rotating column, above the rotating electric collector, and being designed with an axial connection to a pipe for the supply of fluid, as a consequence of which the rotating fluid connection can be made with a smaller diameter of its rotating part, resulting in lower linear velocities between its fixed and rotating parts, the rotating machine additionally having at least one rotating fluid distributor, provided on said rotating column and connected to said rotating fluid connection, for the selective distribution of fluid to said workstations, characterized in that the rotating fluid distributor is located on the rotating column below the rotating electric collector, and in that the rotating electric collector is designed in annular form and delimits an axial central passage for the fluid flowing from the rotating fluid connection toward the rotating fluid distributor. - a rotating frame rotatable about an axis of rotation, - a plurality of workstations supported by the rotating frame, - a rotating electricity and fluid supply column, coaxial with the axis of rotation of the rotating frame, - at least one rotating electric collector, provided on said rotating column and connected to a fixed electrical power source, for supplying electricity to said workstations, and - at least one rotating fluid connection, provided on said rotating column and connected to a fixed fluid source, for supplying fluid to said workstations,
Method of creating a seam initial upper thread with a nominal excess seam length of at most 10 mm, the method comprising the following steps: - moving an upper thread section by means of a sewing needle through a piece of fabric from a fabric upper side to a fabric lower side, - drawing out an upper thread initial section by means of a looper until the entire upper thread initial section is disposed below the fabric lower side, - grasping the upper thread initial section by means of an upper thread catcher, - guiding the upper thread initial section by means of the upper thread catcher and processing the upper thread initial section in such a way that the excess seam length is obtained, - wherein the upper thread catcher on the one hand and the looper on the other are configured as different components of a sewing machine. - moving an upper thread section by means of a sewing needle through a piece of fabric from a fabric upper side to a fabric lower side, - drawing out an upper thread initial section by means of a looper until the entire upper thread initial section is disposed below the fabric lower side, - grasping the upper thread initial section by means of an upper thread catcher, - guiding the upper thread initial section by means of the upper thread catcher and processing the upper thread initial section in such a way that the excess seam length is obtained, - wherein the upper thread catcher on the one hand and the looper on the other are configured as different components of a sewing machine.
A segment protection method for an Ethernet tunnel in a Provider Backbone Bridge-Traffic Engineering, PBB-TE, network, wherein the PBB-TE network has two segment protection domains, the two segment protection domains have a shared link, working segments and protection segments in the two segment protection domains have a shared node, at least one of the two segment protection domains works in a non-revertive mode, and a protection object of the segment protection domains is a Traffic Engineering Service Instance, TESI, carried on working segments of the protection domains, characterized in that said method comprises: when the working segments of the two segment protection domains have simultaneous failures or the shared node has a failure, after the failure recovering, the shared node switching all filtering data base, FDB, entries of bidirectional Ethernet Switched Paths, ESPs, of all the TESIs protected by the protection domains on the shared node to standby entries, out ports of the FDB entries of the bidirectional ESPs of the protected TESIs on the shared node being a port connecting the shared link after the switching. when the working segments of the two segment protection domains have simultaneous failures or the shared node has a failure, after the failure recovering, the shared node switching all filtering data base, FDB, entries of bidirectional Ethernet Switched Paths, ESPs, of all the TESIs protected by the protection domains on the shared node to standby entries, out ports of the FDB entries of the bidirectional ESPs of the protected TESIs on the shared node being a port connecting the shared link after the switching.
A control method for an internal combustion engine structured to be a drive source of a vehicle, and provided with at least one cylinder, a control unit, a crank angle sensor, and a starter motor coupled to the internal combustion engine, the control method comprising the following steps after that the internal combustion engine has been automatically stopped: determining whether a request for the restart of the internal combustion engine is present; determining whether rotation of the internal combustion engine is stopped; and in response to a presence of the request for the restart of the internal combustion engine before stop of the rotation of the internal combustion engine, determining whether a crank angle of a cylinder in compression stroke of the internal combustion engine is nearer to bottom dead center than at least one predetermined threshold value (A, B), starting cranking of the internal combustion engine, if the crank angle of the cylinder is nearer to the bottom dead center than the predetermined threshold value (A, B); the control method being characterised in that the control method is further delaying the start of the cranking until the crank angle of the cylinder becomes nearer to the bottom dead center than the predetermined threshold value (A, B), if the crank angle of the cylinder is not nearer to the bottom dead center than the predetermined threshold value (A, B). determining whether a request for the restart of the internal combustion engine is present; determining whether rotation of the internal combustion engine is stopped; and in response to a presence of the request for the restart of the internal combustion engine before stop of the rotation of the internal combustion engine, determining whether a crank angle of a cylinder in compression stroke of the internal combustion engine is nearer to bottom dead center than at least one predetermined threshold value (A, B), starting cranking of the internal combustion engine, if the crank angle of the cylinder is nearer to the bottom dead center than the predetermined threshold value (A, B); the control method being characterised in that the control method is further delaying the start of the cranking until the crank angle of the cylinder becomes nearer to the bottom dead center than the predetermined threshold value (A, B), if the crank angle of the cylinder is not nearer to the bottom dead center than the predetermined threshold value (A, B).
An ethylene polymer comprising a higher molecular weight component and a lower molecular weight component, wherein the polymer has: a ratio of the Mp of the higher molecular weight component to the Mp of the lower molecular weight component in a range from 5:1 to 100:1; a number of LCB of the lower molecular weight component in a range from 5 to 50 LCB per million total carbon atoms; a number of LCB of the higher molecular weight component of less than or equal to 5 LCB per million total carbon atoms; a melt index determined in accordance with ASTM D1238 at 190 °C with a 2,160 gram weight of less than or equal to 0.4 g/10 min; and a density in a range from 0.91 to 0.94 g/cm 3. a ratio of the Mp of the higher molecular weight component to the Mp of the lower molecular weight component in a range from 5:1 to 100:1; a number of LCB of the lower molecular weight component in a range from 5 to 50 LCB per million total carbon atoms; a number of LCB of the higher molecular weight component of less than or equal to 5 LCB per million total carbon atoms; a melt index determined in accordance with ASTM D1238 at 190 °C with a 2,160 gram weight of less than or equal to 0.4 g/10 min; and a density in a range from 0.91 to 0.94 g/cm 3.
A grain-oriented electrical steel sheet comprising ceramic underlying films including forsterite on the surfaces of a steel sheet and phosphate-based over coatings which do not contain chromium and which are disposed on the underlying films, wherein the coating amount of oxygen in the underlying film is 2.0 g/m 2 or more, and 3.5 g/m 2 or less relative to both surfaces of the steel sheet.
An ultrasound backing element (330a, 330b, 330c, 330d, 330e, 330f) comprising: a first concave/convex unit (410, 510) formed of a material capable of absorbing ultrasonic waves wherein the first concave/convex unit forms a pattern in which a 'V' shape is repeatedly arranged such that the pattern comprises a first surface (412, 512) and a second surface (414, 514) that are not in parallel with each other; and a first electrode unit (420, 520) comprising a first electrode (422, 522) and a second electrode (424, 524) that are respectively disposed on the first surface (412, 512) and the second surface (414, 514), wherein the first surface (412, 512) on which the first electrode (422, 522) is disposed and the second surface (414, 514) on which the second electrode (424, 524) is disposed are separated from each other by a separator (416, 418, 516, 518) and are symmetrical to each other, and a third concave/convex unit formed of a material capable of absorbing ultrasonic waves engaged with the first concave/convex unit to be complementary with the first concave/convex unit and having the same shape as the first concave/convex unit while the first electrode unit is interposed between the first and third concave/convex units (510, 530), characterized in that the separator (416, 418, 516, 518) is formed as a groove. a first concave/convex unit (410, 510) formed of a material capable of absorbing ultrasonic waves wherein the first concave/convex unit forms a pattern in which a 'V' shape is repeatedly arranged such that the pattern comprises a first surface (412, 512) and a second surface (414, 514) that are not in parallel with each other; and a first electrode unit (420, 520) comprising a first electrode (422, 522) and a second electrode (424, 524) that are respectively disposed on the first surface (412, 512) and the second surface (414, 514), wherein the first surface (412, 512) on which the first electrode (422, 522) is disposed and the second surface (414, 514) on which the second electrode (424, 524) is disposed are separated from each other by a separator (416, 418, 516, 518) and are symmetrical to each other, and a third concave/convex unit formed of a material capable of absorbing ultrasonic waves engaged with the first concave/convex unit to be complementary with the first concave/convex unit and having the same shape as the first concave/convex unit while the first electrode unit is interposed between the first and third concave/convex units (510, 530), characterized in that the separator (416, 418, 516, 518) is formed as a groove.