mhurhangee/ep-ind-claims huggingface dataset:
A method for writing a grating into an optical fiber, the method comprising: (a) providing a segment of optical fiber; (b) providing a resistive heating element having a thickness less than the grating period, for creating a localized heating zone having an axial length that is shorter than the grating period; (c) positioning the fiber segment and the resistive heating element with respect to each other such that a side surface of the fiber segment abuts a side surface of the resistive heating element at a contact point, and such that a selected portion of the fiber segment is located in the localized heating zone of the resistive heating element; (d) raising the temperature of the resistive heating element to cause an asymmetric notch to be melted into the fiber segment at the contact point and to cause a rotationally asymmetric perturbation in the selected portion of the fiber segment, wherein the heat applied by the resistive heating element causes an asymmetric relaxation of draw-induced stresses in the heated fiber region, and wherein the rotationally asymmetric perturbation is configured so as to provide mode coupling between a symmetric mode and an asymmetric mode; and (e) repeating steps (c) and (d) for successive selected portions of the fiber segment so as to write the grating into the fiber segment. (a) providing a segment of optical fiber; (b) providing a resistive heating element having a thickness less than the grating period, for creating a localized heating zone having an axial length that is shorter than the grating period; (c) positioning the fiber segment and the resistive heating element with respect to each other such that a side surface of the fiber segment abuts a side surface of the resistive heating element at a contact point, and such that a selected portion of the fiber segment is located in the localized heating zone of the resistive heating element; (d) raising the temperature of the resistive heating element to cause an asymmetric notch to be melted into the fiber segment at the contact point and to cause a rotationally asymmetric perturbation in the selected portion of the fiber segment, wherein the heat applied by the resistive heating element causes an asymmetric relaxation of draw-induced stresses in the heated fiber region, and wherein the rotationally asymmetric perturbation is configured so as to provide mode coupling between a symmetric mode and an asymmetric mode; and (e) repeating steps (c) and (d) for successive selected portions of the fiber segment so as to write the grating into the fiber segment.
A method of communication, comprising: receiving a message at a source access point, wherein the message indicates that radio link failure occurred during handover from the source access point to a target access point of at least one access terminal; and adapting at the source access point at least one mobility parameter based on the received message; wherein the message is received from the target access point for the handover. receiving a message at a source access point, wherein the message indicates that radio link failure occurred during handover from the source access point to a target access point of at least one access terminal; and adapting at the source access point at least one mobility parameter based on the received message; wherein the message is received from the target access point for the handover.
A household appliance comprising: a body; and a control panel provided on an outer side of the body, provided with at least one surface outwardly exposed, characterized in that the control panel is formed by a process of extruding an aluminum (Al) material; wherein the control panel comprises two control panel brackets that are respectively provided to a different end portion of the control panel, and wherein the control panel brackets are formed of the same material as the control panel and by a process of extruding an aluminum material, the control panel brackets respectively forming outer side surfaces of the control panel. a body; and a control panel provided on an outer side of the body, provided with at least one surface outwardly exposed, characterized in that the control panel is formed by a process of extruding an aluminum (Al) material; wherein the control panel comprises two control panel brackets that are respectively provided to a different end portion of the control panel, and wherein the control panel brackets are formed of the same material as the control panel and by a process of extruding an aluminum material, the control panel brackets respectively forming outer side surfaces of the control panel.
A method for reducing the effect of multiple dominant pilots in a CDMA communication system including linking a transceiver element with only one of a plurality of nearby base stations for transporting signals between said transceiver element and said linked nearby base station, CHARACTERIZED by: locating a transceiver element in a high density area of multiple dominant pilots; amplifying signals between said transceiver element and said linked nearby base station to reduce the number of multiple dominant pilots; and transmitting from said fixed transceiver element forward link signals of a first nearby sector associated with said linked nearby base station. locating a transceiver element in a high density area of multiple dominant pilots; amplifying signals between said transceiver element and said linked nearby base station to reduce the number of multiple dominant pilots; and transmitting from said fixed transceiver element forward link signals of a first nearby sector associated with said linked nearby base station.
A DNA encoding monomeric canine CRP, the DNA comprising a nucleotide sequence encoding an amino acid sequence consisting of a sequence represented by SEQ ID NO: 1.
An electrical connector assembly, comprising: a plurality of terminal modules, each configured to contain one or more electrical terminals connected to one or more electrical cables; an inner module frame in which the plurality of terminal modules is secured; and a female outer housing having a plurality of cantilevered locking arms with primary surfaces and secondary surfaces on inner sides of the locking arms configured to secure the inner module frame to the female outer housing, wherein latch surfaces of the inner module frame engage the primary surfaces when the inner module frame is inserted within the female outer housing, wherein the female outer housing is configured to receive a header having side walls surrounding a plurality of mating electrical terminals, wherein the locking arms define ramp features on outer sides of the locking arms configured to push the locking arms inwardly when the side walls contact the ramp features of the locking arms as the header is inserted within the outer housing, thereby engaging the secondary surfaces with the latch surfaces. a plurality of terminal modules, each configured to contain one or more electrical terminals connected to one or more electrical cables; an inner module frame in which the plurality of terminal modules is secured; and a female outer housing having a plurality of cantilevered locking arms with primary surfaces and secondary surfaces on inner sides of the locking arms configured to secure the inner module frame to the female outer housing, wherein latch surfaces of the inner module frame engage the primary surfaces when the inner module frame is inserted within the female outer housing, wherein the female outer housing is configured to receive a header having side walls surrounding a plurality of mating electrical terminals, wherein the locking arms define ramp features on outer sides of the locking arms configured to push the locking arms inwardly when the side walls contact the ramp features of the locking arms as the header is inserted within the outer housing, thereby engaging the secondary surfaces with the latch surfaces.
A communication controller (151, 400) configured to control joint-coordination of communication signals (201, 204, 206, 210) exchanged between an access node and remote devices (140, 3401-3404) over respective communication lines; communications between the access node and the remote devices alternating between first time sub-frames and second time sub-frames; the first time sub-frames corresponding to full-duplex, FDX, downstream-priority sub-frames or to time-division duplexing, TDD, downstream sub-frames, and the second time sub-frames corresponding to FDX upstream-priority sub-frames or to TDD upstream sub-frames, further characterized in that: the communication controller is further configured to characterize first cross-talk channels (202, 205) into receivers (3411-3414, 141) of the remote devices during the first time sub-frames and to characterize second cross-talk channels (207, 208) into receivers (111, 3111-3114) of the access node during the second time sub-frames, and the communication controller is further configured to control the joint-coordination of the communication signals exchanged between the access node and the remote devices during the first or second time-sub-frames based on the so-characterized first and second crosstalk channels. the first time sub-frames corresponding to full-duplex, FDX, downstream-priority sub-frames or to time-division duplexing, TDD, downstream sub-frames, and the second time sub-frames corresponding to FDX upstream-priority sub-frames or to TDD upstream sub-frames, further characterized in that: the communication controller is further configured to characterize first cross-talk channels (202, 205) into receivers (3411-3414, 141) of the remote devices during the first time sub-frames and to characterize second cross-talk channels (207, 208) into receivers (111, 3111-3114) of the access node during the second time sub-frames, and the communication controller is further configured to control the joint-coordination of the communication signals exchanged between the access node and the remote devices during the first or second time-sub-frames based on the so-characterized first and second crosstalk channels. the communication controller is further configured to characterize first cross-talk channels (202, 205) into receivers (3411-3414, 141) of the remote devices during the first time sub-frames and to characterize second cross-talk channels (207, 208) into receivers (111, 3111-3114) of the access node during the second time sub-frames, and the communication controller is further configured to control the joint-coordination of the communication signals exchanged between the access node and the remote devices during the first or second time-sub-frames based on the so-characterized first and second crosstalk channels.
A production method of a silicon wafer comprising the step of etching a main surface of a both-side mirror finished silicon wafer so as to lower the gloss level of said main silicon surface while maintaining a global flatness level, the etching step consisting in bringing the main surface into contact either with a sodium hydroxide solution being kept at a temperature of 80°C to 90°C and having a weight concentration of 60 wt% to 70 wt%, or with a sodium hydroxide solution being kept at a temperature of 85°C to 90°C and having a weight concentration of 55 wt% to 60 wt%.
Semiconductor device (20, 30) comprising a trench MOS barrier Schottky diode with integrated PN diode as clamp element, which comprises a combination of Schottky diode, MOS structure and PN diode, characterized in that the semiconductor device comprises an n+-type substrate, in that an n-type layer is arranged on the n+-type substrate, in that trenches are arranged in the n-type layer, in that the trenches are filled with a p-doped poly-Si at most over a part of their depth, and in that the n+-type substrate bears a contact layer as cathode layer and the n-type layer bears a contact layer as anode layer, wherein the anode layer is separated from the n-type layer by an oxide layer in the region of the walls of the trenches and an MOS structure is thus formed, wherein the anode layer forms an ohmic contact with the p-doped poly-Si, a Schottky diode with respect to the n-type layer, and at the same time serves as gate electrode for the MOS structure, wherein the p-doped poly-Si together with the n-type layer forms a PN diode, and in that the breakdown voltage (BV_pn) of the PN diode is lower than the breakdown voltages (BV_mos, BV_schottky) of the MOS structure and the Schottky diode.
A method of wireless communication in a Long Term Evolution, LTE, network, the method comprising: receiving, by a user equipment, UE, a multiplexed multicarrier radio frequency, RF, signal having N carriers; and accessing, by the UE, the N carriers by performing one carrier access per multicast channel, MCH, scheduling period, MSP, per carrier of the N carriers, thereby performing N accesses per MSP duration across the N carriers. receiving, by a user equipment, UE, a multiplexed multicarrier radio frequency, RF, signal having N carriers; and accessing, by the UE, the N carriers by performing one carrier access per multicast channel, MCH, scheduling period, MSP, per carrier of the N carriers, thereby performing N accesses per MSP duration across the N carriers.
A control device for an electronic aerosol provision system, the control device being configured to receive a replaceable component to form an electronic aerosol provision system, the control device including: a communication interface for performing communications external to the electronic aerosol provision system; a memory configured to hold a set of stored identifiers; and a control system configured to: receive control information from a remote server via the communication interface; update the set of stored identifiers based on the control information received from the remote server; receive an identifier from a replaceable component received by the control device; make a comparison of the received identifier against the set of stored identifiers; and perform a control action for the electronic aerosol provision system dependent upon the result of said comparison, wherein the control system is further configured to send a request for updated control information from the remote server in response to the received identifier not matching one of the stored identifiers. a communication interface for performing communications external to the electronic aerosol provision system; a memory configured to hold a set of stored identifiers; and a control system configured to: receive control information from a remote server via the communication interface; update the set of stored identifiers based on the control information received from the remote server; receive an identifier from a replaceable component received by the control device; make a comparison of the received identifier against the set of stored identifiers; and perform a control action for the electronic aerosol provision system dependent upon the result of said comparison, wherein the control system is further configured to send a request for updated control information from the remote server in response to the received identifier not matching one of the stored identifiers. receive control information from a remote server via the communication interface; update the set of stored identifiers based on the control information received from the remote server; receive an identifier from a replaceable component received by the control device; make a comparison of the received identifier against the set of stored identifiers; and perform a control action for the electronic aerosol provision system dependent upon the result of said comparison, wherein the control system is further configured to send a request for updated control information from the remote server in response to the received identifier not matching one of the stored identifiers.
A multi-layered packaging material able to be deep-drawn, characterised in that the packaging material comprises a layer composite having two layers (2a, 2b) of paper or cardboard and a layer of plastic, in particular of polyethylene or polypropylene which lies therebetween.
A blending device for blending sub-images (16a, 16b,..., 16q) projected by a plurality of projectors into a larger image, the blending device comprising - a plurality of adjustable movable optical blending means (110a, 110b), each of said adjustable optical blending means (110a, 110b) adapted to be mounted on a projector of said plurality of projectors, characterized in that the device further comprises: - removable controlling means for automatedly controlling at least one of said plurality of adjustable movable optical blending means (110a, 110b), said removable controlling means comprising engaging means (122a, 122b) adapted for temporarily engaging with said at least one adjustable optical blending means (110a, 110b) in order to transfer movement to the at least one adjustable movable blending means. - a plurality of adjustable movable optical blending means (110a, 110b), each of said adjustable optical blending means (110a, 110b) adapted to be mounted on a projector of said plurality of projectors, characterized in that the device further comprises: - removable controlling means for automatedly controlling at least one of said plurality of adjustable movable optical blending means (110a, 110b), said removable controlling means comprising engaging means (122a, 122b) adapted for temporarily engaging with said at least one adjustable optical blending means (110a, 110b) in order to transfer movement to the at least one adjustable movable blending means.
Method for the transmission of signals in an optical network, comprising: transmitting via a first transmission path a first signal in a first frequency range and a second signal in a second frequency range, the first frequency range is different from the second frequency range, the first signal containing the same content as the second signal, separating the first signal from the second signal, transmitting the separated first signal via a second transmission path, after the transmission via the second transmission path the first signal is filtered using a first device that has a first transfer function (184, 186) that transmits the first signal, wherein the first transfer function (184, 186) is such that the first device allows transmission of signals in the second frequency range (sf4b) and blocks transmission of signals in at least one frequency range (sf3b) that is different from or is between the first frequency range (sf2b) and the second frequency range (sf4b). transmitting via a first transmission path a first signal in a first frequency range and a second signal in a second frequency range, the first frequency range is different from the second frequency range, the first signal containing the same content as the second signal, separating the first signal from the second signal, transmitting the separated first signal via a second transmission path, after the transmission via the second transmission path the first signal is filtered using a first device that has a first transfer function (184, 186) that transmits the first signal, wherein the first transfer function (184, 186) is such that the first device allows transmission of signals in the second frequency range (sf4b) and blocks transmission of signals in at least one frequency range (sf3b) that is different from or is between the first frequency range (sf2b) and the second frequency range (sf4b).
A portable type information processing terminal device comprising: a substrate carrying a substantially annular antenna coil thereon; a signal processing integrated circuit element arranged inside the antenna coil; a magnetic plate arranged on the substrate; and a metal plate arranged on the magnetic plate; the substrate, the magnetic plate and the metal plate being integrally formed and arranged in a cabinet; wherein the magnetic plate is provided with an aperture for locating the signal processing integrated circuit element. a substrate carrying a substantially annular antenna coil thereon; a signal processing integrated circuit element arranged inside the antenna coil; a magnetic plate arranged on the substrate; and a metal plate arranged on the magnetic plate;
An advertisement element having an underside adapted for positioning on a surface and an upper side comprising an advertisement surface with advertisement information wherein said advertisement surface comprises a plurality of protrusions, wherein each protrusion comprises a fragment of a first display surface with graphics applied to the surface, said surface and said graphics being oriented towards a first predefined viewpoint and a fragment of a second display surface with graphics (18") applied to the surface, said surface and said graphics (18") being oriented towards a second predefined viewpoint, and wherein the advertisement information comprises a first image composed of the combined graphics on the first display surfaces and a second image composed of the combined graphics (18") on the second display surfaces and wherein each said fragment may comprise a visible and an occluded part of a respective said display surface (14, 16) when viewed from its predefined viewpoint (4, 6) said occluded part being a lower part (19', 19") of said fragment and wherein said first display surface and said second display surface is separated by an edge and wherein said edge comprises a separation line separating graphics from said first display surface and said second display surface, characterized in that a drop line (21', 21") is applied to a said occluded, lower part (19', 19") of a said fragment to thereby stretch the lower end of said graphics applied to said visible part of said fragment in a direction towards the lowermost part of said fragment.
Motor vehicle with a drive system for a fan of an engine cooling system, wherein the motor vehicle has a radiator for re-cooling a cooling medium for cooling an internal combustion engine, and wherein a fan which is driven by means of a driveshaft of the internal combustion engine and which serves for cooling the engine cooling medium is arranged between the radiator and the internal combustion engine, and the drive system comprises a viscous coupling and a vibration damper which comprises an elastic element and which dampens and/or decouples the vibrations between the driveshaft-side output A of the internal combustion engine and the fan, wherein the viscous coupling and the vibration damper are arranged between the internal combustion engine and the fan, wherein the vibration damper is arranged between the fan and the viscous coupling and dampens and/or decouples vibrations acting between the fan and the viscous coupling, wherein the vibration damper is constructed from at least two parts and comprises at least one rigid connecting element (11, 12) and at least one elastic damping element, wherein the connecting element (11, 12) and the damping element are arranged parallel to one another and so as to be offset relative to one another in the axial direction, characterized - in that the connecting element (11, 12) comprises at least one fixing means receiving bore which adjoins a fixing means receiving recess in the damping element, and - the fixing means is in the form of a screw with screw head and screw shank, and the fixing means receiving bore and the fixing means receiving recess are designed such that the screw shank is passed through the fixing means receiving bore and the screw head is countersunk or at least partially received in the fixing means receiving recess at the level of the damping element. - in that the connecting element (11, 12) comprises at least one fixing means receiving bore which adjoins a fixing means receiving recess in the damping element, and - the fixing means is in the form of a screw with screw head and screw shank, and the fixing means receiving bore and the fixing means receiving recess are designed such that the screw shank is passed through the fixing means receiving bore and the screw head is countersunk or at least partially received in the fixing means receiving recess at the level of the damping element.