mhurhangee/ep-ind-claims huggingface dataset:
An output device adapted to be connected to a host device and to operate according to data received from the host device, the output device comprising: a volatile memory having a receive buffer for storing the data received from the host device and a parameter RAM area for temporarily storing operating parameter values; means responsive to a predetermined first command from the host device for storing operating parameter values in said parameter RAM area of said volatile memory, a controller (201, 207) for controlling the output device based on the operating parameter values stored in said parameter RAM area of said volatile memory; a first operating parameter controller for saving operating parameter data, which is stored in said parameter RAM area of said volatile memory, into a nonvolatile memory, said operating parameter data comprising one or more operating parameter values; and a second operating parameter controller for restoring operating parameter data, which is saved in said nonvolatile memory, into said parameter RAM area of said volatile memory in response to a specific input; characterized in that said first operating parameter controller is adapted to save said operating parameter data, which is stored in said parameter RAM area of said volatile memory, into said nonvolatile memory in response to a predetermined second command from the host device; and said second operating parameter controller is adapted to restore into said parameter RAM area of said volatile memory operating parameter data saved in said nonvolatile memory in response to a predetermined third command from the host device. a volatile memory having a receive buffer for storing the data received from the host device and a parameter RAM area for temporarily storing operating parameter values; means responsive to a predetermined first command from the host device for storing operating parameter values in said parameter RAM area of said volatile memory, a controller (201, 207) for controlling the output device based on the operating parameter values stored in said parameter RAM area of said volatile memory; a first operating parameter controller for saving operating parameter data, which is stored in said parameter RAM area of said volatile memory, into a nonvolatile memory, said operating parameter data comprising one or more operating parameter values; and a second operating parameter controller for restoring operating parameter data, which is saved in said nonvolatile memory, into said parameter RAM area of said volatile memory in response to a specific input; characterized in that said first operating parameter controller is adapted to save said operating parameter data, which is stored in said parameter RAM area of said volatile memory, into said nonvolatile memory in response to a predetermined second command from the host device; and said second operating parameter controller is adapted to restore into said parameter RAM area of said volatile memory operating parameter data saved in said nonvolatile memory in response to a predetermined third command from the host device.
A method in a user equipment configured to communicate with two cell groups including a first cell group and a second cell group, communication with the two cell groups comprising establishment of a first medium access control, MAC, entity and a second MAC entity, the first MAC entity associated with the first cell group and the second MAC entity associated with the second cell group, the method comprising: receiving a first connection reconfiguration message to configure at least one split bearer with a first logical channel identity, terminated in the second cell group; applying a first security key for communication with the first cell group and a second security key for communication with the second cell group; receiving a second connection reconfiguration message, the second connection reconfiguration message including a counter having a count value for deriving a third security key for communication with the second cell group, wherein the third security key that was derived for communication with the second cell group is based on the count value of the received counter; and applying the third security key for communication with the second cell group, while continuing to use the first security key and the first MAC entity for communication with the first cell group, where continuing to use the first MAC entity includes not resetting the first MAC entity. receiving a first connection reconfiguration message to configure at least one split bearer with a first logical channel identity, terminated in the second cell group; applying a first security key for communication with the first cell group and a second security key for communication with the second cell group; receiving a second connection reconfiguration message, the second connection reconfiguration message including a counter having a count value for deriving a third security key for communication with the second cell group, wherein the third security key that was derived for communication with the second cell group is based on the count value of the received counter; and applying the third security key for communication with the second cell group, while continuing to use the first security key and the first MAC entity for communication with the first cell group, where continuing to use the first MAC entity includes not resetting the first MAC entity.
A power generation element using an inverse magnetostrictive effect, the power generation element comprising: a frame yoke made of a magnetic material and having a bent part for forming a closed magnetic circuit; a magnetic part formed in a part of the frame yoke; a magnetostrictive plate made of a magnetostrictive material; a coil; and a magnet, wherein the magnetic part has rigidity and geometry for applying a uniform compressive force or tensile force to the magnetostrictive plate and is magnetically saturated by magnetic biases of the magnets, the magnetostrictive plate is attached to the frame yoke so as to be parallel to the magnetic part, the coil is wound around a parallel beam part including the magnetostrictive plate and the magnetic part and/or around the frame yoke, and the magnetostrictive plate is extended and compressed by an applied external force and causes the generation of electricity.
Positioning system for a traveling transfer system, comprising: - a traveling transport section, - at least one traveler which travels on the transport section, and - a positioning device having a multiplicity of position sensors which are arranged on the transport section, - the position sensors being arranged in a first row and in a second row, the first row being arranged parallel to the second row, and - the position sensors being arranged spaced apart from one another in each row and the position sensors of the second row each being arranged at the respective gaps of the first row, the position sensors being arranged in the first and second rows (6, 7) in the direction of travel in such a manner that they each have overlapping regions at their beginning lying in the direction of travel and their end lying in the direction of travel, characterized in that - the positioning device has a sensor printed circuit board on which the multiplicity of position sensors are arranged, the sensor printed circuit board being arranged on the entire traveling transport section, the sensor printed circuit board comprising a multiplicity of printed circuit board parts, and the printed circuit board parts each having defined interfaces at their free ends. - a traveling transport section, - at least one traveler which travels on the transport section, and - a positioning device having a multiplicity of position sensors which are arranged on the transport section, - the position sensors being arranged in a first row and in a second row, the first row being arranged parallel to the second row, and - the position sensors being arranged spaced apart from one another in each row and the position sensors of the second row each being arranged at the respective gaps of the first row, the position sensors being arranged in the first and second rows (6, 7) in the direction of travel in such a manner that they each have overlapping regions at their beginning lying in the direction of travel and their end lying in the direction of travel, characterized in that - the positioning device has a sensor printed circuit board on which the multiplicity of position sensors are arranged, the sensor printed circuit board being arranged on the entire traveling transport section, the sensor printed circuit board comprising a multiplicity of printed circuit board parts, and the printed circuit board parts each having defined interfaces at their free ends.
An electromagnetic switch, wherein a main contact housing portion that houses a main contact mechanism having a pair of fixed contacts (11a, lib) fixedly disposed maintaining a predetermined interval and a movable contact disposed so as to be connectable to and detachable from the pair of fixed contacts in a contact housing case, an auxiliary contact housing portion that houses two or more auxiliary contact mechanisms (34A, 34B) having fixed contacts (26a, 26b, 27a, 27b) and movable contacts (32a, 32b) disposed so as to be connectable to and detachable from the fixed contacts, an electromagnet unit having a movable plunger that individually couples and moves the movable contact of the main contact mechanism and the movable contacts of the auxiliary contact mechanisms, are disposed in series, characterized in that the movable plunger has an extension portion extending into the auxiliary contact housing portion, wherein a movable contact holding portion that holds the movable contacts (32a, 32b) is screwed to the extension portion, and the position of the movable contact holding portion can be regulated in the axial direction.
A sample rack comprising: a plurality of container holding parts arranged in one direction and each configured to hold a sample container containing a sample; a pedestal provided below the container holding part, the pedestal comprises two plate members (121, 122) having two side surfaces (121a, 122a) as outer surfaces (121a, 122a) parallel to a direction in which the container holding parts are arranged; wherein one of the plate members (121, 122) comprises a notch for receiving an entry of a regulating member into an interior of the pedestal; and the other of the plate members (121, 122) comprises a wall, the wall being an inner surface of the other of the plate members (121, 122) and arranged to regulate a movement of the regulating member having entered through the notch at a predetermined position on the other of the plate members (121, 122). a plurality of container holding parts arranged in one direction and each configured to hold a sample container containing a sample; a pedestal provided below the container holding part, the pedestal comprises two plate members (121, 122) having two side surfaces (121a, 122a) as outer surfaces (121a, 122a) parallel to a direction in which the container holding parts are arranged; wherein one of the plate members (121, 122) comprises a notch for receiving an entry of a regulating member into an interior of the pedestal; and the other of the plate members (121, 122) comprises a wall, the wall being an inner surface of the other of the plate members (121, 122) and arranged to regulate a movement of the regulating member having entered through the notch at a predetermined position on the other of the plate members (121, 122).
Airbag assembly comprising an airbag and an inflator assembly, wherein the airbag comprises an outer skin having an inner side and an outer side, wherein an opening structure for the inflator is provided in an inflator attachment region of the outer skin, said opening structure comprising at least two basically radially extending cut-outs, so that the attachment region has at least two flap sections being separated by the cut-outs, wherein the inflator assembly has an inflator with an inflator body having a generated surface, said inflator body extending through the opening structure such that a first section of the inflator body is located inside the outer skin, and a second section of the inflator body is located outside the outer skin, and wherein at least parts of the flap sections lie against the generated surface of the second section of the inflator body, characterized in that the inflator assembly further comprises a flange being located on the inner side of the outer skin, and in that the inflator is attached to the flange. wherein the airbag comprises an outer skin having an inner side and an outer side, wherein an opening structure for the inflator is provided in an inflator attachment region of the outer skin, said opening structure comprising at least two basically radially extending cut-outs, so that the attachment region has at least two flap sections being separated by the cut-outs, wherein the inflator assembly has an inflator with an inflator body having a generated surface, said inflator body extending through the opening structure such that a first section of the inflator body is located inside the outer skin, and a second section of the inflator body is located outside the outer skin, and wherein at least parts of the flap sections lie against the generated surface of the second section of the inflator body, characterized in that the inflator assembly further comprises a flange being located on the inner side of the outer skin, and in that the inflator is attached to the flange.
A method of designing a wind turbine rotor blade, the method comprising: a) selecting a gravity load safety factor associated with wind turbine rotor blade fatigue loading due to gravity, the gravity load safety factor being selected to be less than a defined wind load safety factor associated with wind turbine rotor blade fatigue loading that is not due to gravity; b) determining a gravity-corrected design load for wind turbine rotor blade deflection, the gravity-corrected design load being determined based on the selected gravity load safety factor and the defined wind load safety factor; and, c) designing a gravity-corrected wind turbine rotor blade in accordance with the determined gravity-corrected design load; and, determining a gravity-corrected probability of failure of the designed gravity-corrected rotor blade for a fatigue failure mode due to blade deflection; and, if the determined gravity-corrected probability of failure is greater than a reference probability of failure for the fatigue failure mode, then the method comprises increasing the selected gravity load safety factor and repeating steps b) and c). a) selecting a gravity load safety factor associated with wind turbine rotor blade fatigue loading due to gravity, the gravity load safety factor being selected to be less than a defined wind load safety factor associated with wind turbine rotor blade fatigue loading that is not due to gravity; b) determining a gravity-corrected design load for wind turbine rotor blade deflection, the gravity-corrected design load being determined based on the selected gravity load safety factor and the defined wind load safety factor; and, c) designing a gravity-corrected wind turbine rotor blade in accordance with the determined gravity-corrected design load; and, determining a gravity-corrected probability of failure of the designed gravity-corrected rotor blade for a fatigue failure mode due to blade deflection; and, if the determined gravity-corrected probability of failure is greater than a reference probability of failure for the fatigue failure mode, then the method comprises increasing the selected gravity load safety factor and repeating steps b) and c). determining a gravity-corrected probability of failure of the designed gravity-corrected rotor blade for a fatigue failure mode due to blade deflection; and, if the determined gravity-corrected probability of failure is greater than a reference probability of failure for the fatigue failure mode, then the method comprises increasing the selected gravity load safety factor and repeating steps b) and c).
A method for forming a thin-walled polymeric orthodontic aligner defined by opposing first and second sides, said method comprising: creating a model of a patient's dental anatomy in a computer-aided design system; manipulating the CAD model to design an aligner to exert a therapeutic force on at least one of the patient's teeth; generating a set of instructions for a CNC milling machine to mill the first side and second side of an aligner based on the CAD model; providing a blank of polymeric material on a CNC milling machine; characterized in that the method includes producing a holding pattern by CNC milling machine using a set of instructions generated based on the CAD model to support at least a portion of the first side of the aligner; milling the blank with the CNC milling machine to create the first side of the aligner; supporting at least a portion of the first side on the holding pattern; and milling the blank with the CNC milling machine to create the second side of the aligner. creating a model of a patient's dental anatomy in a computer-aided design system; manipulating the CAD model to design an aligner to exert a therapeutic force on at least one of the patient's teeth; generating a set of instructions for a CNC milling machine to mill the first side and second side of an aligner based on the CAD model; providing a blank of polymeric material on a CNC milling machine; characterized in that the method includes producing a holding pattern by CNC milling machine using a set of instructions generated based on the CAD model to support at least a portion of the first side of the aligner; milling the blank with the CNC milling machine to create the first side of the aligner; supporting at least a portion of the first side on the holding pattern; and milling the blank with the CNC milling machine to create the second side of the aligner.
A textile sleeve for providing fire protection to a fluid conveying conduit, consisting of: a single tubular textile wall formed from at least one of the group consisting of basalt, silica, ceramic and fiberglass yarn, said wall having an outer surface and an inner surface bounding a cavity sized for receipt of the fluid conveying conduit; a coating composition of silicone rubber adhered to said outer surface; said coating composition consisting of a flame retardant additive mixed with said silicone rubber to form a coating composition, said flame retardant additive consisting of zinc borate and magnesium hydroxide in a ratio of 2:3, respectively. a single tubular textile wall formed from at least one of the group consisting of basalt, silica, ceramic and fiberglass yarn, said wall having an outer surface and an inner surface bounding a cavity sized for receipt of the fluid conveying conduit; a coating composition of silicone rubber adhered to said outer surface; said coating composition consisting of a flame retardant additive mixed with said silicone rubber to form a coating composition, said flame retardant additive consisting of zinc borate and magnesium hydroxide in a ratio of 2:3, respectively.
A base station used in a mobile communication system, comprising: a channel generating unit configured to generate synchronization channels to.be used in a cell search performed by a user equipment; and a transmitting unit configured to wirelessly transmit a signal including the synchronization channels, wherein the synchronization channels include a primary synchronization channel for detecting a reception timing and a secondary synchronization channel including cell-specific information; the secondary synchronization channel is composed of a combination of different short codes selected from multiple combinations of short codes; correspondence among the combinations of short codes, cell identification information, and frame synchronization timings is stored in a memory; the combinations of short codes are determined such that secondary synchronization channels including a same short code are not transmitted from adjacent cells at two or more of the frame synchronization timings in succession; the secondary synchronization channel is composed of a first short code identified by a first index number and a second short code identified by a second index number; and the combinations of short codes are predetermined for each cell identification information such that a condition "the second index number - the first index number ≤ Δ, Δ being an integer less than or equal to 29" is satisfied, wherein a numerical range of 0-30 is predefined as index numbers, and the first index number and the second index number are selected from the same numerical range of 0-30 both for a first one of the frame synchronization timings and a second one of the frame synchronization timings. a channel generating unit configured to generate synchronization channels to.be used in a cell search performed by a user equipment; and a transmitting unit configured to wirelessly transmit a signal including the synchronization channels, wherein
A windshield for a balance, comprising: an outer windshield defining a weighing chamber; and an inner windshield disposed inside the outer windshield by a fixing frame and covering a weighing pan, wherein the outer windshield has an openable and closable sliding door in a side surface, wherein the inner windshield is provided with an opening (26; opened in a surface facing the sliding door, characterized in that a portion of the fixing frame positioned corresponding to a lower portion of the opening constitutes a shielding wall and the shielding wall blocks inflow of air to the inside of the inner windshield. an outer windshield defining a weighing chamber; and an inner windshield disposed inside the outer windshield by a fixing frame and covering a weighing pan, wherein the outer windshield has an openable and closable sliding door in a side surface, wherein the inner windshield is provided with an opening (26; opened in a surface facing the sliding door, characterized in that a portion of the fixing frame positioned corresponding to a lower portion of the opening constitutes a shielding wall and the shielding wall blocks inflow of air to the inside of the inner windshield.
A milk frothing apparatus which includes a steam probe a jug and jug support a resistance sensor, located adjacent to the steam probe tip, to determine the depth of milk in the jug; the steam probe or jug support being movable, to maintain the tip of the probe below the milk surface; a temperature sensor to monitor the temperature of the milk in the jug; a micro controller to start the process; to maintain the position of the steam probe relative to the milk surface; to stop the process when the milk reaches a desired temperature and to maintain records of the number of cycles and a measure of the quantity of milk treated.