mhurhangee/ep-ind-claims huggingface dataset:
A method of restricting access to a basestation in a cellular wireless communications network, the method being executed by the base station and comprising: maintaining in said basestation a list of authorized devices; when an unauthorized device camps onto the basestation, sending a "Location Area Not Allowed" message to said unauthorized device; wherein said "Location Area Not Allowed" message is sent to said unauthorized device only when said unauthorized device camps repeatedly onto the basestation. maintaining in said basestation a list of authorized devices; when an unauthorized device camps onto the basestation, sending a "Location Area Not Allowed" message to said unauthorized device; wherein said "Location Area Not Allowed" message is sent to said unauthorized device only when said unauthorized device camps repeatedly onto the basestation.
A semiconductor memory device comprising: bit lines; word lines intersecting the bit lines; and memory cells connected to the bit lines and the word lines, the memory cells being arranged in a matrix to form a plurality of memory blocks, wherein the plurality of memory blocks are arranged in a bit line wiring direction, respective memory blocks sharing respective bit lines to form memory block columns, the columns being arranged in a word line wiring direction; wherein at least two of said memory block columns adjoining each other constitute a to-be-remedied unit (A, B, C, D) wherein said to-be-remedied unit includes a portion of memory (111A, 11D) replaceable by a redundant memory block; and at least one redundant memory block in each to-be-remedied unit, characterised in that said at least one redundant memory block in each to-be-remedied (A, B, C, D) unit is arranged sharing a bit line with at least one memory block column in said to-be-remedied unit for applying redundancy to said at least one memory block column with which it shares a bit line and also for applying redundancy to memory block columns in said to-be-remedied unit with which it does not share a bit line. bit lines; word lines intersecting the bit lines; and memory cells connected to the bit lines and the word lines, the memory cells being arranged in a matrix to form a plurality of memory blocks, wherein the plurality of memory blocks are arranged in a bit line wiring direction, respective memory blocks sharing respective bit lines to form memory block columns, the columns being arranged in a word line wiring direction; wherein at least two of said memory block columns adjoining each other constitute a to-be-remedied unit (A, B, C, D) wherein said to-be-remedied unit includes a portion of memory (111A, 11D) replaceable by a redundant memory block; and at least one redundant memory block in each to-be-remedied unit, characterised in that said at least one redundant memory block in each to-be-remedied (A, B, C, D) unit is arranged sharing a bit line with at least one memory block column in said to-be-remedied unit for applying redundancy to said at least one memory block column with which it shares a bit line and also for applying redundancy to memory block columns in said to-be-remedied unit with which it does not share a bit line.
A method for controlling voltage of a DC link of a power converter of a wind turbine power system connected to a power grid, the method comprising: operating the DC link to an optimum voltage set point that achieves steady state operation of the power converter; monitoring a speed of the wind turbine power system; upon detection of one or more speed conditions occurring in the wind turbine power system, selecting 2. between a first maximum voltage set point for the DC link and a second maximum voltage set point for the DC link; increasing the optimum voltage set point to the selected first or second maximum voltage set point of the DC link; and, operating the DC link at the selected first or second maximum voltage set point until the one or more speed conditions passes so as to optimize voltage control of the DC link. operating the DC link to an optimum voltage set point that achieves steady state operation of the power converter; monitoring a speed of the wind turbine power system; upon detection of one or more speed conditions occurring in the wind turbine power system, selecting 2. between a first maximum voltage set point for the DC link and a second maximum voltage set point for the DC link; increasing the optimum voltage set point to the selected first or second maximum voltage set point of the DC link; and, operating the DC link at the selected first or second maximum voltage set point until the one or more speed conditions passes so as to optimize voltage control of the DC link.
Shelf bracket for securing to a body wall of wood or wood material, comprising an angular piece having a member which is vertical in the assembly position and having a member which is horizontal in the assembly position, and a wall pin which is for insertion into a hole of the body wall and which is formed so as to protrude horizontally at the outer side of the vertical member, characterised in that the outer sides (4, 7) of the two members (5, 8) define an angle (α) between 85° and 88°, in particular approximately 87°, and in that the outer side of the vertical member has below the horizontal wall pin a projection which is for abutment on the body wall and whose end face defines with the outer side of the horizontal member an angle (ß) which is greater than the angle (α) and which is a maximum of 90°.
An arrangement for providing a status indication of a coupling device of a towing vehicle, comprising: a sensor arrangement operable to detect when a coupling pin of said coupling device is in an engaged coupling position, a light emitting device electrically connected to said sensor arrangement, and configured to emit a light signal indicative of when said coupling pin is an engaged coupling position, said light emitting device being arranged in the vicinity of said sensor, characterized by an optical waveguide arranged to receive said light signal and guide said light signal, and an out-coupling structure (17; 18) arranged to out-couple said light signal from said optical waveguide. a sensor arrangement operable to detect when a coupling pin of said coupling device is in an engaged coupling position, a light emitting device electrically connected to said sensor arrangement, and configured to emit a light signal indicative of when said coupling pin is an engaged coupling position, said light emitting device being arranged in the vicinity of said sensor, characterized by an optical waveguide arranged to receive said light signal and guide said light signal, and an out-coupling structure (17; 18) arranged to out-couple said light signal from said optical waveguide.
Covering (74, 80), in particular for a garment, comprising a plurality of projections (10, 22, 62) projecting from a base surface of the covering (74, 80), the projections (10, 22, 62) being made of an elastically deformable material, whereby the projections (10, 22, 62) have a micro crater (34, 64) with a recess at the top of the projections (10, 22, 62), wherein in order to absorb pressure on the covering (74, 80), an average outer surface of the projections (10, 22, 62) has an outer angle (α) of more than 97° with respect to the base surface, whereby the average outer surface is a surface between the bottom of the outer surface and the top of the outer surface of the projections (10, 22, 62), characterized in that the outer surface of the projections (10, 22, 62) is built as a jagged surface with a plurality of edges (46, 48), which run substantially parallel to the base surface.
A method for forming a sheet structure (322; 401), comprising: providing a tool (308; 400) having a formation surface corresponding to a shape of the sheet structure (322; 401); depositing at least one layer of metallic material on the formation surface using a cold-spray deposition technique; and removing the at least one layer of material from the formation surface to create the sheet structure (322; 401), characterised in that the method further comprises forming an interface coating (312; 406) on the formation surface via electroplating, such that depositing the at least one layer of metallic material includes depositing the at least one layer of metallic material on the interface coating (312; 406). providing a tool (308; 400) having a formation surface corresponding to a shape of the sheet structure (322; 401); depositing at least one layer of metallic material on the formation surface using a cold-spray deposition technique; and removing the at least one layer of material from the formation surface to create the sheet structure (322; 401), characterised in that the method further comprises forming an interface coating (312; 406) on the formation surface via electroplating, such that depositing the at least one layer of metallic material includes depositing the at least one layer of metallic material on the interface coating (312; 406).
A heat exchanger, comprising: a plurality of heat exchange tube segments defining a plurality of fluid pathways therein; a plurality of fins disposed between adjacent heat exchange tube segments of the plurality of heat exchange tube segments; a bend formed in the plurality of heat exchange tube segments defining a first portion of the heat exchanger disposed at a first side of the bend, and a second portion of the heat exchanger disposed at a second side of the bend opposite the first side; and a support disposed at or near the bend, the support including: a support base; and characterized by: at least one support finger extending from the support base and into a gap between adjacent heat exchange tube segments of the plurality of heat exchange tube segments. a plurality of heat exchange tube segments defining a plurality of fluid pathways therein; a plurality of fins disposed between adjacent heat exchange tube segments of the plurality of heat exchange tube segments; a bend formed in the plurality of heat exchange tube segments defining a first portion of the heat exchanger disposed at a first side of the bend, and a second portion of the heat exchanger disposed at a second side of the bend opposite the first side; and a support disposed at or near the bend, the support including: a support base; and characterized by: at least one support finger extending from the support base and into a gap between adjacent heat exchange tube segments of the plurality of heat exchange tube segments.
An oral care composition comprising: (a) from about 0.0025% to about 5%, by weight of the oral care composition, of tin; (b) from about 5% to about 50%, by weight of the oral care composition, of stabilizing polyol, the stabilizing polyol comprising five or six carbon atoms, wherein the stabilizing polyol is xylitol, sorbitol, galactitol and/or mixtures thereof; (c) from about 0.0025% to about 20%, by weight of the oral care composition, of gum strengthening polyol, the gum strengthening polyol comprising seven or more hydroxyl functional groups, and wherein the gum strengthening polyol is trehalose, rafiose, stachyose, verbascose, isomalt, maltitol, lactitol, maltotriitol, maltotetraitol, polyglycitol, or combinations thereof; and (d) up to about 45%, by weight of the oral care composition, of water, wherein the oral care composition has a pH of greater than 7. (a) from about 0.0025% to about 5%, by weight of the oral care composition, of tin; (b) from about 5% to about 50%, by weight of the oral care composition, of stabilizing polyol, the stabilizing polyol comprising five or six carbon atoms, wherein the stabilizing polyol is xylitol, sorbitol, galactitol and/or mixtures thereof; (c) from about 0.0025% to about 20%, by weight of the oral care composition, of gum strengthening polyol, the gum strengthening polyol comprising seven or more hydroxyl functional groups, and wherein the gum strengthening polyol is trehalose, rafiose, stachyose, verbascose, isomalt, maltitol, lactitol, maltotriitol, maltotetraitol, polyglycitol, or combinations thereof; and (d) up to about 45%, by weight of the oral care composition, of water,
A method of manufacturing a pre-insulated skeleton framing segment for buildings of various dimensions, wherein the method comprises the steps of: a) receiving an assembly which is manufactured on the basis of a 3D computer model represented by CAD data which is stored in a database under an identification code of the assembly, the assembly having at least one compartment with a hollow space which is to be filled at least partially with a foam insulation layer, and whereby a data carrier containing the identification code is fitted to the assembly; wherein the assembly has a wooden or metal frame composed of a plurality of beams secured to each other, and a first flat panel with dimensions corresponding to those of the frame, the first flat panel being secured to the frame, and wherein the CAD-data comprises at least the dimensions of the beams and their mutual positions; b) reading the data carrier; c) retrieving the CAD data of the assembly from the database on the basis of the identification code, and determining a quantity of raw materials which are to be inserted in the at least one compartment for forming the foam insulation layer with the predetermined thickness on the basis of the retrieved CAD data; d) inserting the determined quantity of raw materials in the at least one compartment for forming the foam insulation layer with the predetermined thickness; e) allowing the foam insulation layer to foam and harden in the at least one compartment during a predetermined period. a) receiving an assembly which is manufactured on the basis of a 3D computer model represented by CAD data which is stored in a database under an identification code of the assembly, the assembly having at least one compartment with a hollow space which is to be filled at least partially with a foam insulation layer, and whereby a data carrier containing the identification code is fitted to the assembly; wherein the assembly has a wooden or metal frame composed of a plurality of beams secured to each other, and a first flat panel with dimensions corresponding to those of the frame, the first flat panel being secured to the frame, and wherein the CAD-data comprises at least the dimensions of the beams and their mutual positions; b) reading the data carrier; c) retrieving the CAD data of the assembly from the database on the basis of the identification code, and determining a quantity of raw materials which are to be inserted in the at least one compartment for forming the foam insulation layer with the predetermined thickness on the basis of the retrieved CAD data; d) inserting the determined quantity of raw materials in the at least one compartment for forming the foam insulation layer with the predetermined thickness; e) allowing the foam insulation layer to foam and harden in the at least one compartment during a predetermined period.
A method of identifying a cell accessible to a communication device for communication and of providing a service to the communication device via the identified cell in a communication system having a plurality of cells arranged in a plurality of location areas, each location area including at least one macro cell served by a base station and at least one private cell served by a private base station, the base stations being controlled by a Mobile Switching Centre, MSC, the at least one private cell being arranged for providing a communication link between the communication device and an an IP Multimedia Subsystem, IMS, network,, the method comprising: when the communication device is in an idle mode in a location area having a private base station by which the communication device is registered with the IMS network, receiving an invitation for initiating a service with the communication device at the private base station; in response to receiving the invitation, sending by the private base station paging messages for the communication device via the private cell served by the private base station and an invite message to the MSC; in response to receiving the invite message, sending paging messages by the MSC for the communication device via the at least one macro cell; receiving a response to the paging message from the communication device via one of the private cell and the at least one macro cell, the one of the private cell and the at least one macro cell then being identified as a cell accessible to the communication device for communication; and providing the service to the communication device via the identified cell. when the communication device is in an idle mode in a location area having a private base station by which the communication device is registered with the IMS network, receiving an invitation for initiating a service with the communication device at the private base station; in response to receiving the invitation, sending by the private base station paging messages for the communication device via the private cell served by the private base station and an invite message to the MSC; in response to receiving the invite message, sending paging messages by the MSC for the communication device via the at least one macro cell; receiving a response to the paging message from the communication device via one of the private cell and the at least one macro cell, the one of the private cell and the at least one macro cell then being identified as a cell accessible to the communication device for communication; and providing the service to the communication device via the identified cell.
A method for detection and/or quantification by extraction and concentration of contaminants in form of hydrophilic compounds, biological materials or particles dispersed or distributed in fuel as hydrophobic/non-polar/non-ionic liquid matrices comprising the following steps: a) providing a sample of a hydrophobic liquid as hydrophobic/nonpolar/non-ionic liquid matrix; b) adding to said sample an aqueous capture solution comprising 0,5 - 10,00 g soy lecithin, 0,01 - 0,20 g methylene blue, 0,01 - 0,05 g sodium hypochlorite and 1000,00 g water, which is added to the sample in a low ratio of 1: 10 or less; c) mixing said sample and said capture solution thoroughly; d) allowing the aqueous phase to separate from the sample phase; e) measuring the hydrophilic compound or the biological material or particles in the aqueous phase. a) providing a sample of a hydrophobic liquid as hydrophobic/nonpolar/non-ionic liquid matrix; b) adding to said sample an aqueous capture solution comprising 0,5 - 10,00 g soy lecithin, 0,01 - 0,20 g methylene blue, 0,01 - 0,05 g sodium hypochlorite and 1000,00 g water, which is added to the sample in a low ratio of 1: 10 or less; c) mixing said sample and said capture solution thoroughly; d) allowing the aqueous phase to separate from the sample phase; e) measuring the hydrophilic compound or the biological material or particles in the aqueous phase.
A method for preparing a pet food, wherein the method comprises adding an isolated myoglobin, wherein the isolated myoglobin is a rat myoglobin, a rabbit myoglobin, a mouse myoglobin, a mammoth myoglobin or a tuna myoglobin.
A system configured to apply stimulating current to a patient for treating insufficient uterine contractions, the system comprising: a balloon electrode array device 54 configured to be coupled to one of a uterus, a cervix, and a vaginal wall of the patient to provide the stimulating current to the patient, the balloon electrode array device 54 including at least one balloon (56, 58); an access tube extending into the at least one balloon (56, 58); a plurality of lead wires routed through the access tube and into an inside portion of the balloon (56, 58); a plurality of electrodes, each one of the plurality of electrodes coupled to one of the plurality of lead wires, the plurality of electrodes extending from the inside portion of the balloon to an outer surface of the balloon (56, 58); and a current source coupled to the plurality of lead wires, characterised in that the current source is configured to produce stimulating current at a frequency between about 0,1 Hertz and about 100 Hertz to control the operation of the electrodes, the electrodes are to apply the stimulating current to the patient for treating insufficient uterine contractions. a balloon electrode array device 54 configured to be coupled to one of a uterus, a cervix, and a vaginal wall of the patient to provide the stimulating current to the patient, the balloon electrode array device 54 including at least one balloon (56, 58); an access tube extending into the at least one balloon (56, 58); a plurality of lead wires routed through the access tube and into an inside portion of the balloon (56, 58); a plurality of electrodes, each one of the plurality of electrodes coupled to one of the plurality of lead wires, the plurality of electrodes extending from the inside portion of the balloon to an outer surface of the balloon (56, 58); and a current source coupled to the plurality of lead wires, characterised in that the current source is configured to produce stimulating current at a frequency between about 0,1 Hertz and about 100 Hertz to control the operation of the electrodes, the electrodes are to apply the stimulating current to the patient for treating insufficient uterine contractions.
An oral care implement comprising: a head; a handle having a distal end and a proximal end, the head connected to the distal end of the handle; the handle comprising a core structure constructed of a first rigid material and an elongated handle body constructed of a second rigid material, the core structure disposed within a through slot of the elongated handle body so that the core structure remains exposed on opposite lateral surfaces of the handle; and a grip cover constructed of a resilient material, the grip cover covering a front surface (151, 171), a rear surface (152, 172) and a proximal end surface of the elongated handle body. a head; a handle having a distal end and a proximal end, the head connected to the distal end of the handle; the handle comprising a core structure constructed of a first rigid material and an elongated handle body constructed of a second rigid material, the core structure disposed within a through slot of the elongated handle body so that the core structure remains exposed on opposite lateral surfaces of the handle; and a grip cover constructed of a resilient material, the grip cover covering a front surface (151, 171), a rear surface (152, 172) and a proximal end surface of the elongated handle body.