mhurhangee/ep-ind-claims huggingface dataset:
A wireless communications device, comprising: a body having a first edge and a second edge, the second edge being substantially opposite the first edge; an antenna, the antenna driven by an RF feed, the RF feed being located in the area of the first edge; and a flip cover, the flip cover comprising a conductive portion, wherein the conductive portion is electrically insulated from an electrical ground within the body except for a flip ground connection to the electrical ground within the body at a single point, the flip ground connection being located substantially in the area of the second edge; and characterized by a conductive body portion, the conductive body portion covering at least a portion of the body, wherein the conductive body portion is electrically insulated from the electrical ground except for a body ground connection connecting the conductive body portion to the electrical ground at a single point, the body ground connection being located substantially in the area of the first edge. a body having a first edge and a second edge, the second edge being substantially opposite the first edge; an antenna, the antenna driven by an RF feed, the RF feed being located in the area of the first edge; and a flip cover, the flip cover comprising a conductive portion, wherein the conductive portion is electrically insulated from an electrical ground within the body except for a flip ground connection to the electrical ground within the body at a single point, the flip ground connection being located substantially in the area of the second edge; and characterized by a conductive body portion, the conductive body portion covering at least a portion of the body, wherein the conductive body portion is electrically insulated from the electrical ground except for a body ground connection connecting the conductive body portion to the electrical ground at a single point, the body ground connection being located substantially in the area of the first edge.
Squirrel-cage rotor of an asynchronous machine, comprising conductors in grooves of a magnetic field-conducting rotor, and electrically conducting rotor end rings which are located in the region of the end faces of the magnetic field-conducting rotor, which electrically connect the conductors and have at least two materials that conduct electricity differently, wherein at least one insert part is provided in at least one rotor end ring, wherein the rotor end ring consists of an insert part made of a second electrically conductive material, for example, a copper part, which is surrounded by a melt of a first electrically conductive material, for example, an aluminium melt, wherein the conductors are either made of a first electrically conductive material or of an insert part conductor rod made of a second electrically conductive material, for example, copper rod, which is surrounded by a melt of the first electrically conductive material, for example, the aluminium melt, characterised in that the insert part extends in a toroidal shape within the rotor end ring.
A system for configuring outlet groups on an uninterruptible power supply, the system comprising: a computer system connected via a communication link to the UPS, wherein the computer system includes: a memory; at least one processor coupled to the memory, the at least one processor configured to: receive configuration management information pertaining to at least one device; receive configuration management information pertaining to a plurality of outlet groups associated with the UPS; determine one outlet configuration profile for the at least one device based on the received configuration management information, the one outlet configuration profile being included in a plurality of outlet configuration profiles; determine one outlet group of the plurality of outlet groups, the one outlet group being configured for the one outlet configuration profile; associate the one outlet configuration profile with the one outlet group; and provide an instruction for a user to connect the at least one device in an outlet included in the one outlet group. a memory; at least one processor coupled to the memory, the at least one processor configured to: receive configuration management information pertaining to at least one device; receive configuration management information pertaining to a plurality of outlet groups associated with the UPS; determine one outlet configuration profile for the at least one device based on the received configuration management information, the one outlet configuration profile being included in a plurality of outlet configuration profiles; determine one outlet group of the plurality of outlet groups, the one outlet group being configured for the one outlet configuration profile; associate the one outlet configuration profile with the one outlet group; and provide an instruction for a user to connect the at least one device in an outlet included in the one outlet group. receive configuration management information pertaining to at least one device; receive configuration management information pertaining to a plurality of outlet groups associated with the UPS; determine one outlet configuration profile for the at least one device based on the received configuration management information, the one outlet configuration profile being included in a plurality of outlet configuration profiles; determine one outlet group of the plurality of outlet groups, the one outlet group being configured for the one outlet configuration profile; associate the one outlet configuration profile with the one outlet group; and provide an instruction for a user to connect the at least one device in an outlet included in the one outlet group.
A wireless communication apparatus comprising: an antenna unit that switches between a plurality of beam patterns by using a plurality of antenna elements; a communication unit that performs wireless communication with a communication terminal by using the antenna unit; a quality information acquisition unit that acquires quality information indicating a communication quality of the wireless communication; a movement information acquisition unit that acquires movement information indicating movement of a relative position of the communication terminal with respect to the antenna unit; and a beam control unit that controls the beam pattern to be switched by the antenna unit on the basis of the acquired quality information and movement information, wherein the quality information indicates a reception intensity of a signal transmitted from the communication terminal and received by the antenna unit, and characterized in that if a margin to an allowable minimum value of the reception intensity is greater than a first threshold value, a half-value angle of the current beam pattern is increased. an antenna unit that switches between a plurality of beam patterns by using a plurality of antenna elements; a communication unit that performs wireless communication with a communication terminal by using the antenna unit; a quality information acquisition unit that acquires quality information indicating a communication quality of the wireless communication; a movement information acquisition unit that acquires movement information indicating movement of a relative position of the communication terminal with respect to the antenna unit; and a beam control unit that controls the beam pattern to be switched by the antenna unit on the basis of the acquired quality information and movement information, wherein the quality information indicates a reception intensity of a signal transmitted from the communication terminal and received by the antenna unit, and characterized in that if a margin to an allowable minimum value of the reception intensity is greater than a first threshold value, a half-value angle of the current beam pattern is increased.
An elastic structure for absorbent sanitary products having elasticized portions alternating with non-elasticized portions, comprising - a sleeve comprising a first and a second layer (14, 16) of non-elastic flexible material overlapping each other, - at least one elastic thread which extends within said sleeve in a longitudinal direction, and - a plurality of first connecting portions spaced apart in the longitudinal direction, wherein each of said first connecting portions comprises two first welds arranged on opposite sides of the thread, wherein the first welds weld said first and said second layers (14, 16) to each other in a first longitudinal portion of said sleeve, and wherein said first welds of each of said first connecting portions have respective proximal surfaces facing the thread spaced apart by a distance, less than the diameter of the untensioned thread, in order to anchor the thread to said first longitudinal portion of the sleeve, thereby forming an elasticized portion of the elastic structure, characterized in that it comprises a plurality of second connecting portions spaced apart in the longitudinal direction, wherein each of said second connecting portions comprises at least one second weld, wherein said at least one second weld of each of said second connecting portions welds said first and said second layers (14, 16) to each other in a second longitudinal portion of said sleeve without axially connecting the thread to said second longitudinal portion of the sleeve, thereby forming a non-elasticized portion of the elastic structure and wherein each of said second connecting portions comprises two second welds arranged on opposite sides of the thread and having respective proximal surfaces facing the thread, spaced apart by a distance greater than the diameter of the untensioned thread. - a sleeve comprising a first and a second layer (14, 16) of non-elastic flexible material overlapping each other, - at least one elastic thread which extends within said sleeve in a longitudinal direction, and - a plurality of first connecting portions spaced apart in the longitudinal direction, wherein each of said first connecting portions comprises two first welds arranged on opposite sides of the thread, wherein the first welds weld said first and said second layers (14, 16) to each other in a first longitudinal portion of said sleeve, and wherein said first welds of each of said first connecting portions have respective proximal surfaces facing the thread spaced apart by a distance, less than the diameter of the untensioned thread, in order to anchor the thread to said first longitudinal portion of the sleeve, thereby forming an elasticized portion of the elastic structure,
A method of operating and regenerating an electroless nickel plating bath, wherein the electroless nickel plating bath is substantially free of sulphate and sodium ions, the method comprising the steps of: a) depositing electroless nickel from the electroless nickel plating bath onto a substrate, wherein the electroless nickel plating bath comprises a source of nickel ions and a source of hypophosphite ions; b) maintaining a suitable concentration of nickel ions and hypophosphite ions in the plating bath; c) operating the plating bath until at least 4 metal turnovers is reached; d) processing a portion of the electroless nickel plating solution through a cation exchange resin to separate nickel, wherein after the nickel is removed, a phosphite solution comprising ammonium phosphite, ammonium hypophosphite, and organic acid remains; e) regenerating the cation exchange resin with hypophosphorus acid to produce a dilute nickel phosphite solution with an excess of hypophosphorus acid; f) increasing the concentration of nickel in the dilute nickel phosphite solution of step e) by adding a source of nickel ions selected from the group consisting of nickel carbonate, nickel hydroxide, nickel oxide, and combinations thereof to the solution to form a concentrated nickel solution; and g) adding the concentrated nickel solution of step f) to the plating bath of step b) to maintain the concentration of nickel ions in the plating bath, wherein the sodium content of the phosphite solution after processing through the cation exchange resin is less than 10 g/l, and wherein the sulphate content of the phosphite solution after processing through the cation exchange resin is less than 10 g/l. a) depositing electroless nickel from the electroless nickel plating bath onto a substrate, wherein the electroless nickel plating bath comprises a source of nickel ions and a source of hypophosphite ions; b) maintaining a suitable concentration of nickel ions and hypophosphite ions in the plating bath; c) operating the plating bath until at least 4 metal turnovers is reached; d) processing a portion of the electroless nickel plating solution through a cation exchange resin to separate nickel, wherein after the nickel is removed, a phosphite solution comprising ammonium phosphite, ammonium hypophosphite, and organic acid remains; e) regenerating the cation exchange resin with hypophosphorus acid to produce a dilute nickel phosphite solution with an excess of hypophosphorus acid; f) increasing the concentration of nickel in the dilute nickel phosphite solution of step e) by adding a source of nickel ions selected from the group consisting of nickel carbonate, nickel hydroxide, nickel oxide, and combinations thereof to the solution to form a concentrated nickel solution; and g) adding the concentrated nickel solution of step f) to the plating bath of step b) to maintain the concentration of nickel ions in the plating bath,
Arrangement (10, 100) for transporting radioactive material such as irradiated nuclear fuels or uranium hexafluoride, comprising a container (11, 102) holding the material and a protective device (12, 14, 104) surrounding said container at least in some sections such as a shock absorber or a protective or outer container holding said container, a thermally insulating first material being provided preferably inside the protective device and/or between the latter and the container, wherein a thermally insulating second material (32, 34, 114, 120, 122, 124, 126) foaming under the effect of heat is provided at least in some regions between the container (11, 102) and the protective device (12, 14, 104).
An indoor unit, comprising: a housing including an air outlet in a lower portion of the housing; an up-down airflow deflector located at the air outlet, the up-down airflow deflector being configured to adjust a direction of air blown from an air path inside the housing; and a pseudo air path part adjacent to the air path, the pseudo air path part including a pseudo air path through which the air inside the housing does not pass, the air outlet and the up-down airflow deflector extending over the air path and the pseudo air path part in a width direction of the housing, characterized in that the up-down airflow deflector includes a shielding plate at an end portion of the up-down airflow deflector that is close to the pseudo air path part, the shielding plate is provided close to a boundary between the air path through which air passes and the pseudo air path of the pseudo air path part, the shielding plate including a plate face extending along a direction in which the air is blown from the air path. a housing including an air outlet in a lower portion of the housing; an up-down airflow deflector located at the air outlet, the up-down airflow deflector being configured to adjust a direction of air blown from an air path inside the housing; and a pseudo air path part adjacent to the air path, the pseudo air path part including a pseudo air path through which the air inside the housing does not pass, the air outlet and the up-down airflow deflector extending over the air path and the pseudo air path part in a width direction of the housing, characterized in that the up-down airflow deflector includes a shielding plate at an end portion of the up-down airflow deflector that is close to the pseudo air path part, the shielding plate is provided close to a boundary between the air path through which air passes and the pseudo air path of the pseudo air path part, the shielding plate including a plate face extending along a direction in which the air is blown from the air path.
A vessel resistance reduction device comprising: a gas chamber provided inside a hull; a defining wall which defines an inside of the gas chamber and an outside of the hull; an air blowing port provided at the defining wall; and a guide member, characterized in that said guide member is provided at a rear side of the hull in the air blowing port, wherein the guide member includes a first guide plate (51;52) provided near the gas chamber in the defining wall to block a part of the air blowing port, wherein the first guide plate (51;52) is provided at an inner face of the defining wall to block a stern side of the air blowing port, wherein the first guide plate (51;52) is provided to block an area equal to or smaller than a half of an opening area of the air blowing port, and a space portion is formed between the rear end face of the air blowing port and a lower face of the first guide plate (51;52). a gas chamber provided inside a hull; a defining wall which defines an inside of the gas chamber and an outside of the hull; an air blowing port provided at the defining wall; and a guide member, characterized in that said guide member is provided at a rear side of the hull in the air blowing port, wherein the guide member includes a first guide plate (51;52) provided near the gas chamber in the defining wall to block a part of the air blowing port, wherein the first guide plate (51;52) is provided at an inner face of the defining wall to block a stern side of the air blowing port, wherein the first guide plate (51;52) is provided to block an area equal to or smaller than a half of an opening area of the air blowing port, and a space portion is formed between the rear end face of the air blowing port and a lower face of the first guide plate (51;52).
A timepiece, whereof the envelope is formed by a case, a glass and a bottom, comprising a movable hour circle characterized in that it comprises a module made from a cover and a base, wherein levers, are pivotally mounted in said module, said levers being decorated, each, in two determined sites, openings, being formed in the cover of the module to allow said decorated sites to appear, said levers, also being provided with pins, which cooperate with forks, integral parts of an oscillating mass longitudinally movable, said levers being driven: - from one position, into which one of said two sites is visible to another position, into which the other of the two sites is visible, when the oscillating mass moves in a first direction, and - from said position to said position when the oscillating mass moves in a second direction opposite said first direction. longitudinally, the latter parts being provided laterally with. - from one position, into which one of said two sites is visible to another position, into which the other of the two sites is visible, when the oscillating mass moves in a first direction, and - from said position to said position when the oscillating mass moves in a second direction opposite said first direction. longitudinally, the latter parts being provided laterally with.
A process to produce an aqueous solution of carbohydrates comprising C6-sugar-containing oligomers, C6-sugar monomers, C5-sugar-containing oligomers, C5-sugar monomers, or any combination thereof, the process comprising: (a) reacting biomass or a biomass-derived reactant with a solvent system comprising (i) an organic solvent selected from the group consisting of beta-, gamma-, and delta-lactones, and combinations thereof, and (ii) at least about 1 wt% water; in the presence of an acid catalyst for a time and under conditions to yield a product mixture wherein at least a portion of water-insoluble C6-sugar-containing polymers or oligomers, or water-insoluble C5-sugar-containing polymers or oligomers, if present in the biomass or biomass-derived reactant, are converted to water-soluble C6-sugar-containing oligomers, C6-sugar monomers, C5-sugar-containing oligomers, C5-sugar monomers, or any combination thereof; and then (b) adding a solute to the product mixture of step (a) in an amount sufficient to cause partitioning of the product mixture into an aqueous layer and a substantially immiscible organic layer. (a) reacting biomass or a biomass-derived reactant with a solvent system comprising (i) an organic solvent selected from the group consisting of beta-, gamma-, and delta-lactones, and combinations thereof, and (ii) at least about 1 wt% water; in the presence of an acid catalyst for a time and under conditions to yield a product mixture wherein at least a portion of water-insoluble C6-sugar-containing polymers or oligomers, or water-insoluble C5-sugar-containing polymers or oligomers, if present in the biomass or biomass-derived reactant, are converted to water-soluble C6-sugar-containing oligomers, C6-sugar monomers, C5-sugar-containing oligomers, C5-sugar monomers, or any combination thereof; and then (b) adding a solute to the product mixture of step (a) in an amount sufficient to cause partitioning of the product mixture into an aqueous layer and a substantially immiscible organic layer.
A system comprising: a set of transmitters; multiple receivers (220-1,220-2,220-3,220-4,220-5,220-6,220-7) arranged on a tool structure with variable distances to the transmitters of the set of transmitters, the receivers (220-1, 220-2, 220-3, 220-4, 220-5, 220-6, 220-7) arranged to measure electromagnetic responses from a multi-pipe structure in response to excitation of the set of transmitters with the tool structure disposed in the multi-pipe structure, wherein the multi-pipe structure has an innermost pipe; and a controller arranged to operate the set of transmitters, to acquire electromagnetic responses from the multiple receivers (220-1, 220-2, 220-3, 220-4, 220-5, 220-6, 220-7), and to process the electromagnetic responses from the multiple receivers (220-1, 220-2, 220-3, 220-4, 220-5, 220-6, 220-7) using an inversion scheme to recover individual thicknesses of each pipe (110-1,110-2,110-3,110-4,110-5) of the multi-pipe structure, characterised in that the multi-pipe structure has an innermost pipe and an outermost pipe and the variable distances between the transmitters and the receivers (220-1, 220-2, 220-3, 220-4, 220-5, 220-6, 220-7) are in a range from 2*Di to 4*D 2, where D 1 is the diameter of the innermost pipe and D 2 the diameter of the outermost pipe of the multi-pipe structure. a set of transmitters; multiple receivers (220-1,220-2,220-3,220-4,220-5,220-6,220-7) arranged on a tool structure with variable distances to the transmitters of the set of transmitters, the receivers (220-1, 220-2, 220-3, 220-4, 220-5, 220-6, 220-7) arranged to measure electromagnetic responses from a multi-pipe structure in response to excitation of the set of transmitters with the tool structure disposed in the multi-pipe structure, wherein the multi-pipe structure has an innermost pipe; and a controller arranged to operate the set of transmitters, to acquire electromagnetic responses from the multiple receivers (220-1, 220-2, 220-3, 220-4, 220-5, 220-6, 220-7), and to process the electromagnetic responses from the multiple receivers (220-1, 220-2, 220-3, 220-4, 220-5, 220-6, 220-7) using an inversion scheme to recover individual thicknesses of each pipe (110-1,110-2,110-3,110-4,110-5) of the multi-pipe structure, characterised in that the multi-pipe structure has an innermost pipe and an outermost pipe and the variable distances between the transmitters and the receivers (220-1, 220-2, 220-3, 220-4, 220-5, 220-6, 220-7) are in a range from 2*Di to 4*D 2, where D 1 is the diameter of the innermost pipe and D 2 the diameter of the outermost pipe of the multi-pipe structure.