mhurhangee/ep-ind-claims huggingface dataset:
System for treating a substrate comprising: (a) a vacuum chamber for receiving and/or transferring the substrate, (b) a reaction chamber for treating a plurality of substrates under a controlled gaseous atmosphere, and with a substrate storage for vertically storing the plurality of substrates in the reaction chamber, (c) a transfer chamber arranged between the vacuum chamber and the reaction chamber for receiving the substrate from the vacuum chamber and transferring it into the reaction chamber or vice versa, (d) a first lock between the vacuum chamber and the transfer chamber, (e) a second lock between the transfer chamber and the reaction chamber, (f) a controller for controlling the flow of a gas into the transfer chamber to be the same gas as in the reaction chamber, wherein the controller is adapted to control the pressure and temperature of the gaseous atmosphere in the transfer chamber to be the same as in the reaction chamber, (g) a transport mechanism in the transfer chamber, wherein the transport mechanism is adapted to transfer and/or receive a substrate to/from the substrate storage from/into the transfer chamber, and (h) control means for controlling the duration of treatment of each substrate individually in the reaction chamber, wherein the control means is adapted to automatically transfer the respective substrate from the reaction chamber into the transfer chamber after a pre-determined period of time. (a) a vacuum chamber for receiving and/or transferring the substrate, (b) a reaction chamber for treating a plurality of substrates under a controlled gaseous atmosphere, and with a substrate storage for vertically storing the plurality of substrates in the reaction chamber, (c) a transfer chamber arranged between the vacuum chamber and the reaction chamber for receiving the substrate from the vacuum chamber and transferring it into the reaction chamber or vice versa, (d) a first lock between the vacuum chamber and the transfer chamber, (e) a second lock between the transfer chamber and the reaction chamber, (f) a controller for controlling the flow of a gas into the transfer chamber to be the same gas as in the reaction chamber, wherein the controller is adapted to control the pressure and temperature of the gaseous atmosphere in the transfer chamber to be the same as in the reaction chamber, (g) a transport mechanism in the transfer chamber, wherein the transport mechanism is adapted to transfer and/or receive a substrate to/from the substrate storage from/into the transfer chamber, and (h) control means for controlling the duration of treatment of each substrate individually in the reaction chamber, wherein the control means is adapted to automatically transfer the respective substrate from the reaction chamber into the transfer chamber after a pre-determined period of time.
A refrigerator including a main body having a storage space with an open front face and a door for opening and closing the storage space and a door supporting device, comprising: a hinge bracket including a fixing portion fixed to a front face of the refrigerator, and a supporting portion extending forward from an upper end of the fixing portion and having a threaded hole with threads formed on an inner periphery thereof; a hinge shaft having threads on an outer periphery thereof and threadly engaged with the threaded hole so that the hinge shaft can be supported by the hinge bracket, the hinge shaft having an upper end for rotatably supporting the door; a hinge cap fitted around the upper end of the hinge shaft and inserted into a hinge hole formed in a bottom surface of the door so as to rotatably support the door, wherein the hinge cap comprises a rearward extension and a rotation preventing projection extending downward from the extension, and the rotation preventing projection is inserted into a fixing hole of the hinge bracket so as to restrict rotation of the hinge cap, characterised in that the door supporting device further comprises a nut threadly engaged with the hinge shaft below the hinge bracket, a portion of the hinge shaft above the hinge bracket is formed with a radially extending support flange, and the support flange comes into contact with and supports a lower end of the hinge cap. a hinge bracket including a fixing portion fixed to a front face of the refrigerator, and a supporting portion extending forward from an upper end of the fixing portion and having a threaded hole with threads formed on an inner periphery thereof; a hinge shaft having threads on an outer periphery thereof and threadly engaged with the threaded hole so that the hinge shaft can be supported by the hinge bracket, the hinge shaft having an upper end for rotatably supporting the door; a hinge cap fitted around the upper end of the hinge shaft and inserted into a hinge hole formed in a bottom surface of the door so as to rotatably support the door, wherein the hinge cap comprises a rearward extension and a rotation preventing projection extending downward from the extension, and the rotation preventing projection is inserted into a fixing hole of the hinge bracket so as to restrict rotation of the hinge cap, characterised in that the door supporting device further comprises a nut threadly engaged with the hinge shaft below the hinge bracket, a portion of the hinge shaft above the hinge bracket is formed with a radially extending support flange, and the support flange comes into contact with and supports a lower end of the hinge cap.
A method for locating a lost transmitting device in an area of no network connectivity using a seek mobile device moving through the area, the method involving the following steps performed by the seek mobile device: initiating a sensing mode in response to receiving an indication via a remote service that the location of a lost mobile device is unknown; capturing first position data of the lost mobile device if a signal from the lost mobile device is detected; capturing second position data of the lost mobile device in response to losing the signal from the lost mobile device; and determining an estimated location of the lost mobile device based on the first position data and the second position data. initiating a sensing mode in response to receiving an indication via a remote service that the location of a lost mobile device is unknown; capturing first position data of the lost mobile device if a signal from the lost mobile device is detected; capturing second position data of the lost mobile device in response to losing the signal from the lost mobile device; and determining an estimated location of the lost mobile device based on the first position data and the second position data.
A method comprising: capturing an external identification, ID, associated with a wireless client device from an external billable event communicated between the wireless client device and a wireless subscriber billing system; associating the external ID with a Subscriber ID, SID, used to communicate a billing request from the wireless subscribes billing system to an operator billing system; receiving the billing request from an external billing source at the wireless subscriber billing system; and mapping the external ID contained in the billing request to the subscriber ID after the external billing request is received from the external billing source. capturing an external identification, ID, associated with a wireless client device from an external billable event communicated between the wireless client device and a wireless subscriber billing system; associating the external ID with a Subscriber ID, SID, used to communicate a billing request from the wireless subscribes billing system to an operator billing system; receiving the billing request from an external billing source at the wireless subscriber billing system; and mapping the external ID contained in the billing request to the subscriber ID after the external billing request is received from the external billing source.
A device for removing tissue in a patient, said device comprising: a shaft having a longitudinal axis and including (i) an outer sleeve having a distal region with an outer window and an axial bore therethrough and an inner sleeve with an axis rotationally disposed in the axial bore of the outer sleeve; a dielectric cutting member having a longitudinal axis carried at a distal end of the inner sleeve, wherein the dielectric cutting member has an inner window with at least one sharp cutting edge (942A; 942B); and an electrode disposed on an exterior surface of the cutting member so that the inner sleeve can be rotated relative to the outer sleeve to expose the electrode through the outer window of the outer sleeve, wherein the electrode has micropores therein that communicate with a central channel of the cutting member and a negative pressure source. a shaft having a longitudinal axis and including (i) an outer sleeve having a distal region with an outer window and an axial bore therethrough and an inner sleeve with an axis rotationally disposed in the axial bore of the outer sleeve; a dielectric cutting member having a longitudinal axis carried at a distal end of the inner sleeve, wherein the dielectric cutting member has an inner window with at least one sharp cutting edge (942A; 942B); and an electrode disposed on an exterior surface of the cutting member so that the inner sleeve can be rotated relative to the outer sleeve to expose the electrode through the outer window of the outer sleeve, wherein the electrode has micropores therein that communicate with a central channel of the cutting member and a negative pressure source.
A cable guide bracket comprising: a cable bend guide arm (306A, 307A, 306B, 307B); and a moveable cable guide (304A, 304B) formed by a vertical portion (305A, 305B) and a horizontal portion, wherein the vertical portion is configured to have a cable secured thereto by a cable securing mechanism (313A, 313B); and a mounting frame, wherein the horizontal portion of the moveable cable guide (304A, 304B) is configured to be movable secured to an interior portion of the mounting frame, and the vertical portion of the cable is guided, when the cable guide bracket is in use, from the movable cable guide (304A, 304B) to the cable bend guide arm (306A, 307A, 306B, 307B), where the cable is guided around the cable bend guide arm (306A, 307A, 306B, 307B), wherein the moveable cable guide (304A, 304B) and the cable bend guide arm (306A, 307A, 306B, 307B) are positioned in fixed spatial relationship, such that the cable bend guide arm (306A, 307A, 306B, 307B) is configured to move in coordination with movement of the moveable cable guide, whereby a minimum bend radius of the cable is preserved when the movable cable guide (304A, 304B) is moved from a first position to a second position with respect to the mounting frame. a cable bend guide arm (306A, 307A, 306B, 307B); and a moveable cable guide (304A, 304B) formed by a vertical portion (305A, 305B) and a horizontal portion, wherein the vertical portion is configured to have a cable secured thereto by a cable securing mechanism (313A, 313B); and a mounting frame, wherein the horizontal portion of the moveable cable guide (304A, 304B) is configured to be movable secured to an interior portion of the mounting frame, and the vertical portion of the cable is guided, when the cable guide bracket is in use, from the movable cable guide (304A, 304B) to the cable bend guide arm (306A, 307A, 306B, 307B), where the cable is guided around the cable bend guide arm (306A, 307A, 306B, 307B), wherein the moveable cable guide (304A, 304B) and the cable bend guide arm (306A, 307A, 306B, 307B) are positioned in fixed spatial relationship, such that the cable bend guide arm (306A, 307A, 306B, 307B) is configured to move in coordination with movement of the moveable cable guide, whereby a minimum bend radius of the cable is preserved when the movable cable guide (304A, 304B) is moved from a first position to a second position with respect to the mounting frame.
A vacuum drum adapted to transfer at least one label (2a, 2b) along a given path around a rotation axis, comprising: - a main body delimited by an outer lateral surface which is adapted to receive said label (2a, 2b) to be transferred; - a plurality of air ports (10a, 10b) defined by said surface and connectable to a vacuum source; - control means configured for selectively connecting, on the basis of a selected format of the label (2a, 2b) to be transferred along said path, a given number of said air ports to said vacuum source, when said air ports of said given number are arranged between an inlet and an outlet station (3, 4) of said path, so as to transfer said label (2a, 2b) along said path; characterized in that said control means comprise a plurality of valves controllable by a control unit of said control means on the basis of said selected format to allow an air flow between said vacuum source and only said given number of air ports. - a main body delimited by an outer lateral surface which is adapted to receive said label (2a, 2b) to be transferred; - a plurality of air ports (10a, 10b) defined by said surface and connectable to a vacuum source; - control means configured for selectively connecting, on the basis of a selected format of the label (2a, 2b) to be transferred along said path, a given number of said air ports to said vacuum source, when said air ports of said given number are arranged between an inlet and an outlet station (3, 4) of said path, so as to transfer said label (2a, 2b) along said path;
A method in a communication system comprising, at a user agent: receiving a radio resource control, RRC, connection reconfiguration message from an access device, wherein uplink time synchronization at the user agent has been lost when the RRC connection reconfiguration message is received; extracting configuration message information including information that specifies the uplink control channel resources from the RRC connection reconfiguration message; using the extracted information other than the information that specifies the uplink control channel resources to configure the user agent; suspending communication with the access device over the configured uplink control channel resources until uplink time synchronization has been restored; determining that uplink time synchronization has been restored; after uplink time synchronization has been restored, communicating with the access device using uplink control channel resources corresponding to the extracted information. receiving a radio resource control, RRC, connection reconfiguration message from an access device, wherein uplink time synchronization at the user agent has been lost when the RRC connection reconfiguration message is received; extracting configuration message information including information that specifies the uplink control channel resources from the RRC connection reconfiguration message; using the extracted information other than the information that specifies the uplink control channel resources to configure the user agent; suspending communication with the access device over the configured uplink control channel resources until uplink time synchronization has been restored; determining that uplink time synchronization has been restored; after uplink time synchronization has been restored, communicating with the access device using uplink control channel resources corresponding to the extracted information.
A transmission system comprising: a receiver; a plurality of sensors; and a pair of transmission lines (12a, 12b) that electrically connect the receiver to the plurality of sensors, wherein the receiver regularly polls the plurality of sensors by outputting a voltage pulse to between the pair of transmission lines (12a, 12b) as a bit string corresponding to a downward telegraphic message, each of the plurality of sensors transmits a response to the receiver by outputting a current pulse to between the pair of transmission lines (12a, 12b) as a bit string corresponding to an upward telegraphic message, the receiver includes a transmission circuit section that outputs the voltage pulse and receives the current pulse, and a first resistor having a predetermined resistance value depending on a characteristic impedance of the pair of transmission lines (12a, 12b), the first resistor is connected in series between the transmission circuit section and only one of the pair of transmission lines (12a, 12b), and each of the plurality of sensors does not include a resistor having a predetermined resistance value depending on a characteristic impedance of the pair of transmission lines (12a, 12b). a receiver; a plurality of sensors; and a pair of transmission lines (12a, 12b) that electrically connect the receiver to the plurality of sensors, wherein the receiver regularly polls the plurality of sensors by outputting a voltage pulse to between the pair of transmission lines (12a, 12b) as a bit string corresponding to a downward telegraphic message, each of the plurality of sensors transmits a response to the receiver by outputting a current pulse to between the pair of transmission lines (12a, 12b) as a bit string corresponding to an upward telegraphic message, the receiver includes a transmission circuit section that outputs the voltage pulse and receives the current pulse, and a first resistor having a predetermined resistance value depending on a characteristic impedance of the pair of transmission lines (12a, 12b), the first resistor is connected in series between the transmission circuit section and only one of the pair of transmission lines (12a, 12b), and each of the plurality of sensors does not include a resistor having a predetermined resistance value depending on a characteristic impedance of the pair of transmission lines (12a, 12b).
Composite materials with the molecular formula Si x C 10-x Li z, where x can take on any value from 1 to 9 and z = a(4.4x + 1/6(10-x)) with a = any value from 0.1 to 1, characterized in that they consist of an intimate mixture consisting of lithiated or partially lithiated graphite or graphene, powdered silicon with particle sizes between 1 and 100 μm and optionally metallic lithium.
A storage assembly for a shaving razor system, the assembly comprising: a case comprising a top portion and a bottom portion; and an insert (18, 18', 118, 218, 318), wherein the insert (18, 18', 118, 218, 318) comprises one or more cavities (38-1, 38-2, 238-1, 238-2, 338-1, 338-2) configured to receive one or more components (100, 102, 104, 106, 108, 110) of the shaving razor system and wherein the bottom portion of the case defines a compartment configured to removably receive the insert (18, 18', 118, 218, 318) within the bottom portion, characterized in that the insert comprises a material having a Shore A hardness of between 40 and 70. a case comprising a top portion and a bottom portion; and an insert (18, 18', 118, 218, 318), wherein the insert (18, 18', 118, 218, 318) comprises one or more cavities (38-1, 38-2, 238-1, 238-2, 338-1, 338-2) configured to receive one or more components (100, 102, 104, 106, 108, 110) of the shaving razor system and wherein the bottom portion of the case defines a compartment configured to removably receive the insert (18, 18', 118, 218, 318) within the bottom portion, characterized in that the insert comprises a material having a Shore A hardness of between 40 and 70.
Device for the thermal coating of a surface, having: a wire supply unit for the supply of a wire, wherein the wire acts as a first electrode, a source for plasma gas for generating a plasma gas stream, a nozzle body with a nozzle opening through which the plasma gas stream is conducted as a plasma gas jet to one wire end, and a second electrode which is arranged in the plasma gas stream before the latter enters into the nozzle opening, wherein the wire supply unit is adjustable, characterized by adjustment means, whereby the wire end situated in front of the nozzle opening can be moved in an adjustment direction by a certain adjustment travel at least partially perpendicular to the wire longitudinal axis and/or at least partially perpendicular to the plasma gas jet, wherein the wire supply unit has a guide tube which, at least at its lower end, moves conjointly with a guide piece which is adjustable by the action of the adjustment means. a wire supply unit for the supply of a wire, wherein the wire acts as a first electrode, a source for plasma gas for generating a plasma gas stream, a nozzle body with a nozzle opening through which the plasma gas stream is conducted as a plasma gas jet to one wire end, and a second electrode which is arranged in the plasma gas stream before the latter enters into the nozzle opening, wherein the wire supply unit is adjustable, characterized by adjustment means, whereby the wire end situated in front of the nozzle opening can be moved in an adjustment direction by a certain adjustment travel at least partially perpendicular to the wire longitudinal axis and/or at least partially perpendicular to the plasma gas jet, wherein the wire supply unit has a guide tube which, at least at its lower end, moves conjointly with a guide piece which is adjustable by the action of the adjustment means.
A press-coated tablet formulation for a delayed, followed by a pulsed release of an active agent, the tablet comprising (a) a core comprising the active agent(s) together with an excipient(s); and (b) a delayed release layer surrounding the core and comprising a wax and low-substituted hydroxypropyl cellulose (L-HPC) which is mostly fibrous and has a mean particle size of 55μm, a hydroxypropyl content of around 11% and a molecular weight of around 130,000, in a ratio of 40:60 to 60:40 w/w; wherein the delayed release layer delays release of the active agent within the core for between 1.5 - 8 hours after administration of the tablet by a subject and thereafter a pulsed release of the active agent from the core occurs, such that at least 70% of the active agent in the core is released within 5-80 mins. (a) a core comprising the active agent(s) together with an excipient(s); and (b) a delayed release layer surrounding the core and comprising a wax and low-substituted hydroxypropyl cellulose (L-HPC) which is mostly fibrous and has a mean particle size of 55μm, a hydroxypropyl content of around 11% and a molecular weight of around 130,000, in a ratio of 40:60 to 60:40 w/w; wherein the delayed release layer delays release of the active agent within the core for between 1.5 - 8 hours after administration of the tablet by a subject and thereafter a pulsed release of the active agent from the core occurs, such that at least 70% of the active agent in the core is released within 5-80 mins.