mhurhangee/patent-ind-claim-en huggingface dataset:
A packaging unit for a substrate , comprising: - a first tray , - a substrate , and - a second tray , wherein the substrate is inserted into the first tray and the second tray is placed onto the first tray , so that a first side of the substrate is surrounded by the first tray , and an opposite, second side of the substrate is covered by the second tray , wherein a metal deposit is applied to the second side of the substrate , and an adhesive point is arranged on the metal deposit , and wherein the second tray is supported on the first tray in such a way that the second tray touches the substrate only outside the adhesive point , wherein the first tray comprises a bottom and a circumferential wall , and wherein the circumferential wall extends from the bottom to a wall height which lies between the height of the substrate and twice the height of the substrate . - a first tray , - a substrate , and - a second tray , wherein the substrate is inserted into the first tray and the second tray is placed onto the first tray , so that a first side of the substrate is surrounded by the first tray , and an opposite, second side of the substrate is covered by the second tray , wherein a metal deposit is applied to the second side of the substrate , and an adhesive point is arranged on the metal deposit , and wherein the second tray is supported on the first tray in such a way that the second tray touches the substrate only outside the adhesive point , wherein the first tray comprises a bottom and a circumferential wall , and wherein the circumferential wall extends from the bottom to a wall height which lies between the height of the substrate and twice the height of the substrate .
A system for communicating data from a source device to at least one destination device , the source device having no direct access or having only restricted access to any data communication network, wherein the system comprises: - a network device that is to be coupled in communication with the source device , so as to enable the source device to transfer to the network device the data to be communicated to the at least one destination device ; and - a network node configured to provide a network node service to a source client executing on the network device and to a destination client associated with the at least one destination device , wherein the network device is to be coupled in communication with the network node via a data communication network, and wherein the network device is communicably uncoupled from the source device prior to communicably coupling the network device to the network node , wherein the source client is configured to: - check whether or not the destination client is connected to the network node service ; and - communicate the data to the destination client , by relaying the data through the network node service , when the destination client is connected to the network node service , wherein the data communication from the source client to the destination client does not take place, until the network device has been communicably uncoupled from the source device . - a network device that is to be coupled in communication with the source device , so as to enable the source device to transfer to the network device the data to be communicated to the at least one destination device ; and - a network node configured to provide a network node service to a source client executing on the network device and to a destination client associated with the at least one destination device , wherein the network device is to be coupled in communication with the network node via a data communication network, and wherein the network device is communicably uncoupled from the source device prior to communicably coupling the network device to the network node , - check whether or not the destination client is connected to the network node service ; and - communicate the data to the destination client , by relaying the data through the network node service , when the destination client is connected to the network node service , wherein the data communication from the source client to the destination client does not take place, until the network device has been communicably uncoupled from the source device .
Compounds of formula (I) characterized in that X is halogen and R 1 , R 2 , R 3 and R 4 are each independently hydrogen, halogen, alkyl, alkoxy, alkenyl, alkynyl, alkylthio, alkylseleno, wherein R 1 and R 2 and/or R 3 and R 4 may combine to form a 3 to 5-membered saturated or unsaturated bridge optionally substituted with up to 2 heteroatoms and R 5 is linear C 5 to C 20 alkyl which is optionally substituted in any manner by halogen and/or C 1 to C 10 alkyl and/or C 1 to C 10 alkoxy and in which up to six carbon atoms may be replaced by oxygen, in which case at least two carbon atoms shall be present between two oxygen atoms and the R 5 moiety starts with at least two carbon atoms, wherein the terminal methyl group of the linear C 5 to C 20 alkyl moiety shall be unsubstituted.
A ball-hinged transmission shaft with a straight shaft, comprising a socket (W), a ball (Q), and a straight shaft (S), wherein an outer spherical surface (Q-2) of the ball is positioned and limited in an inner positioning spherical surface (W-1) of the socket (W) to form a sliding fit pair; a transmission hole (Q-1) is formed in the ball (Q); after passing through the transmission hole (Q-1) of the ball (Q), the straight shaft (S) is hinged into a bearing hole (W-2) of the socket (W) through a bearing (Z); a rolling element (M) is further coaxially provided on the straight shaft (S); the rolling element (M) is a rotator with an axis of the straight shaft (S) as a center of rotation; an outside of the rolling element (M) is connected to the bearing (Z); a mouth-shaped surface (Q-4) is further provided at two ends of the transmission hole (Q-1) of the ball (Q); the mouth-shaped surface (Q-4) is a curved surface matching a shape of the rolling element (M); the rolling element (M) is fit and provided in the mouth-shaped surface (Q-4) at the two ends of the transmission hole (Q-1) of the ball (Q); and the ball (Q) is restricted by the inner positioning spherical surface (W-1) of the socket (W), the straight shaft (S), and the rolling element (M) at the same time.
A device (30; 300A-M) for releasing a connection between an electric plug and a socket connectable to an electrical signal, the socket including (a) a socket body having (b) at least one internal cavity therein, (c) at least one electrically conductive contact terminal disposed within the cavity for establishing an electrical connection between the electrical signal and the socket , and (d) a cylinder having an internal ridge, the plug comprising (a) a plug body having (b) at least one electrically conductive ring insertable into the internal cavity of the socket to form an electrical connection between the electrically conductive ring and the electrically conductive contact of the socket , (c) a spindle having a portion insertable into the socket cylinder, (d) one or more balls movable within the insertable portion of the spindle and displaceable radially to be positionable adjacent the internal ridge of the socket when the spindle portion is inserted into the socket , (e) a rod movable within the spindle portion and including one or more recesses positionable in a releasing first position adjacent to the one or more balls , and positionable in a locking second position away from the one or more balls , when the rod is slid axially within the spindle , the balls moveable away from the internal ridge of the socket when the rod is in the first position, the device (30; 300A-M) comprising: a cam follower connectable to an end of the rod ; at least one slide support (184; 184A, 184B; 184A', 184B') affixed with respect to the plug body ; the device being characterized by a lever supported by and slideable within the at least one slide support (184; 184A, 184B; 184A', 184B'), the lever including a cam surface contactable with the cam follower when the lever is slid within the channel , whereby the lever can be slid to push the cam surface against the cam follower to move the follower and thereby move the rod to position the rod into the releasing first position. a cam follower connectable to an end of the rod ; at least one slide support (184; 184A, 184B; 184A', 184B') affixed with respect to the plug body ; the device being characterized by a lever supported by and slideable within the at least one slide support (184; 184A, 184B; 184A', 184B'), the lever including a cam surface contactable with the cam follower when the lever is slid within the channel , whereby the lever can be slid to push the cam surface against the cam follower to move the follower and thereby move the rod to position the rod into the releasing first position.
A portable charger device for charging of an implantable neurostimulator in a patient, the charger device comprising: a charging head having a charger housing and an external surface that is configured to at least partially engage a skin surface of the patient and be positioned at least partially over the implantable neurostimulator; a charging coil disposed within the charging housing, wherein the charging coil comprises: an elongate core having a first end , a second end , and a longitudinal axis extending therebetween; and a wire wrapped in a plurality of coils around the elongate core and the longitudinal axis of the elongate core ; and a retention feature configured to hold the charging head in a desired position and orientation against the patient, wherein the charging coil is rotatable when the position of the charging head is fixed. a charging head having a charger housing and an external surface that is configured to at least partially engage a skin surface of the patient and be positioned at least partially over the implantable neurostimulator; a charging coil disposed within the charging housing, wherein the charging coil comprises: an elongate core having a first end , a second end , and a longitudinal axis extending therebetween; and a wire wrapped in a plurality of coils around the elongate core and the longitudinal axis of the elongate core ; and an elongate core having a first end , a second end , and a longitudinal axis extending therebetween; and a wire wrapped in a plurality of coils around the elongate core and the longitudinal axis of the elongate core ; and a retention feature configured to hold the charging head in a desired position and orientation against the patient, wherein the charging coil is rotatable when the position of the charging head is fixed.
Method for using a geometrical probe with a spindle of a machine tool , wherein - in a probe fetch waiting state of the machine tool , at least one temperature parameter related to a temperature of the spindle of the machine tool is determined by measuring at least one temperature value for the spindle , and - a time for fetching the geometrical probe is determined depending on the at least one temperature parameter. - in a probe fetch waiting state of the machine tool , at least one temperature parameter related to a temperature of the spindle of the machine tool is determined by measuring at least one temperature value for the spindle , and - a time for fetching the geometrical probe is determined depending on the at least one temperature parameter.
A gas turbine engine comprising a low drag surface for a fluid washed object, the low drag surface comprising: an aerodynamic surface comprising a cut-out region , and a continuously translatable surface comprising a surface portion , wherein the surface portion is positioned in the cut-out region such that the aerodynamic surface and the surface portion form a fluidwash surface, and the surface portion is translatable relative to the aerodynamic surface; and the low drag surface is located either at an intake to the gas turbine engine, or at an external surface of a nacelle of the gas turbine engine. an aerodynamic surface comprising a cut-out region , and a continuously translatable surface comprising a surface portion , wherein the surface portion is positioned in the cut-out region such that the aerodynamic surface and the surface portion form a fluidwash surface, and the surface portion is translatable relative to the aerodynamic surface; and the low drag surface is located either at an intake to the gas turbine engine, or at an external surface of a nacelle of the gas turbine engine.
Use of a packaging bag for packaging a melt-processable polyvinyl alcohol resin, wherein the packaging bag comprises a film having a thickness of 1 to 500 μm; a methanol vapor transmission rate of 0.5 to 1000 g/m 2 ·day; and a water vapor transmission rate of not higher than 1000 g/m 2 ·day, wherein a material for the film is at least one selected from the group consisting of high-density polyethylene, medium-density polyethylene, low-density polyethylene, polypropylene and polyester,wherein the methanol vapor transmission rate is measured at 23°C at 50 %RH for 24 hours in conformity with JIS Z0208, and wherein the water vapor transmission rate is measured at 40°C at 90 %RH in conformity with JIS Z0208.
A system for controlling qubit gates comprising: a first packaged device comprising a quantum device including a plurality of qubit gates, wherein the quantum device is configured to operate at a cryogenic temperature; and a second packaged device comprising a control system configured to operate at the cryogenic temperature, wherein the first packaged device is coupled to the second packaged device , and wherein the control system comprises: a plurality of charge locking circuits , wherein each of the plurality of charge locking circuits is coupled to at least one qubit gate of the plurality of qubit gates via an interconnect such that each of the plurality of charge locking circuits is configured to provide a voltage signal to at least one qubit gate, and a control circuit comprising a finite state machine configured to provide at least one control signal to selectively enable at least one of the plurality of charge locking circuits and to selectively enable a provision of at least one voltage signal to a selected one of the plurality of charge locking circuits ; wherein the control system further comprises a waveform generator and a register for storing a bit pattern corresponding to a waveform for generation by the waveform generator . a first packaged device comprising a quantum device including a plurality of qubit gates, wherein the quantum device is configured to operate at a cryogenic temperature; and a second packaged device comprising a control system configured to operate at the cryogenic temperature, wherein the first packaged device is coupled to the second packaged device , and wherein the control system comprises: a plurality of charge locking circuits , wherein each of the plurality of charge locking circuits is coupled to at least one qubit gate of the plurality of qubit gates via an interconnect such that each of the plurality of charge locking circuits is configured to provide a voltage signal to at least one qubit gate, and a control circuit comprising a finite state machine configured to provide at least one control signal to selectively enable at least one of the plurality of charge locking circuits and to selectively enable a provision of at least one voltage signal to a selected one of the plurality of charge locking circuits ; a plurality of charge locking circuits , wherein each of the plurality of charge locking circuits is coupled to at least one qubit gate of the plurality of qubit gates via an interconnect such that each of the plurality of charge locking circuits is configured to provide a voltage signal to at least one qubit gate, and a control circuit comprising a finite state machine configured to provide at least one control signal to selectively enable at least one of the plurality of charge locking circuits and to selectively enable a provision of at least one voltage signal to a selected one of the plurality of charge locking circuits ; wherein the control system further comprises a waveform generator and a register for storing a bit pattern corresponding to a waveform for generation by the waveform generator .
A rotation angle detection device , comprising: a coefficient identification unit configured to identify, based on a sine signal (S(θ)) and a cosine signal (C(θ)) which are based on a rotation angle of a rotating body , coefficients (a0_cal, c0_cal, a2_cal, c2_cal, b2_cal, d2_cal) of frequency components included in the sine signal (S(θ)) and the cosine signal (C(θ); a correction value calculation unit configured to calculate correction values (S_corr1, C_corr1) based on the coefficients (a0_cal, c0_cal, a2_cal, c2_cal, b2_cal, d2_cal) identified by the coefficient identification unit ; and a rotation angle calculation unit configured to calculate the rotation angle of the rotating body based on values obtained by correcting one of the sine signal (S(θ)) or the cosine signal (C(θ)), or both thereof, through use of the correction values (S_corr1, C_corr1), characterized in that the coefficient identification unit is configured to identify, for each of integers M and N which satisfy a relationship in which M+N is equal to a positive constant, and each of which is equal to or larger than 0, a coefficient (a0_cal, c0_cal, a2_cal, c2_cal, b2_cal, d2_cal) of each of (M+N-1)th order components included in the sine signal (S(θ)) and the cosine signal (C(θ)), based on results of application of low-pass filters to products of an M-th power of the sine signal (S(θ)) and an N-th power of the cosine signal (C(θ)). a coefficient identification unit configured to identify, based on a sine signal (S(θ)) and a cosine signal (C(θ)) which are based on a rotation angle of a rotating body , coefficients (a0_cal, c0_cal, a2_cal, c2_cal, b2_cal, d2_cal) of frequency components included in the sine signal (S(θ)) and the cosine signal (C(θ); a correction value calculation unit configured to calculate correction values (S_corr1, C_corr1) based on the coefficients (a0_cal, c0_cal, a2_cal, c2_cal, b2_cal, d2_cal) identified by the coefficient identification unit ; and a rotation angle calculation unit configured to calculate the rotation angle of the rotating body based on values obtained by correcting one of the sine signal (S(θ)) or the cosine signal (C(θ)), or both thereof, through use of the correction values (S_corr1, C_corr1), characterized in that the coefficient identification unit is configured to identify, for each of integers M and N which satisfy a relationship in which M+N is equal to a positive constant, and each of which is equal to or larger than 0, a coefficient (a0_cal, c0_cal, a2_cal, c2_cal, b2_cal, d2_cal) of each of (M+N-1)th order components included in the sine signal (S(θ)) and the cosine signal (C(θ)), based on results of application of low-pass filters to products of an M-th power of the sine signal (S(θ)) and an N-th power of the cosine signal (C(θ)).
A pump stopper (E, F) configured to be inserted detachably to a dispenser including: an attachment cap (B) that is fitted to a mouth tubular portion of a container main body (A) and that has a top wall; a pump (C) that is fitted to the attachment cap (B); and a nozzle head (D) that is fitted to an upper end of the pump (C) and that has a tubular body extending vertically downward, wherein the pump stopper (E, F) comprises a substantially cylindrical-shaped stopper main body provided with a side opening in a manner such that the stopper main body is C-shaped in an upper view thereof, and the stopper main body includes, on one of an upper end side and a lower end side thereof, a regulating portion that prevents the tubular body of the nozzle head (D) from being displaced downward, and, on another one of the upper end side and the lower end side thereof, a space portion that allows the tubular body of the nozzle head (D) to be displaced downward when the pump stopper (E, F) is inserted between the top wall of the attachment cap (B) and the tubular body of the nozzle head (D), characterized in that the stopper main body further includes: an inner tubular wall, which is formed in a cylindrical shape a portion of which is cut away circumferentially along side end surfaces thereof; and an outer tubular wall, which is connected to an outer circumferential side of the inner tubular wall with a predetermined distance therebetween and which is formed in a cylindrical shape a portion of which is cut away circumferentially along side end surfaces thereof, and wherein the space portion is defined between the inner tubular wall and the outer tubular wall, and one of an upper end side and a lower end side of each of the inner tubular wall and the outer tubular wall is connected each other as the regulating portion.
A storage bottle for a consumable liquid of an industrial ink jet printer for printing on goods, which is manufactured by means of a blow molding process from a plastic, such as PE, for example, and has a bottle neck leading into an opening ; on the inner wall of the bottle neck , at least one projection is located, which projects radially inwards from the inner wall of the bottle neck ; a peripherally extending receiving region for an attachment part, such as a ring, for example, is located axially between the projection and the opening , characterized in that the projections extend in the circumferential direction over less than 4°, in particular less than 2.5°.
An information transmission method, applied to a terminal, comprising: receiving network slice-related information sent by a network side, the network slice-related information comprising at least one of: second information, the second information representing a correspondence between a network slice and a frequency; third information, the third information representing a correspondence between the network slice and a cell; or fourth information, the fourth information representing a correspondence between the network slice and a cell access parameter, wherein the network slice-related information is used to configure for the terminal, a frequency priority for a specific slice, or, cell reselection parameter; wherein in the second information, the third information and the fourth information, an identifier of the network slice is processed by one of: the identifier of the network slice being encrypted by using a key; the identifier of the network slice being truncated; or the identifier of the network slice being mapped. second information, the second information representing a correspondence between a network slice and a frequency; third information, the third information representing a correspondence between the network slice and a cell; or fourth information, the fourth information representing a correspondence between the network slice and a cell access parameter, wherein the network slice-related information is used to configure for the terminal, a frequency priority for a specific slice, or, cell reselection parameter; wherein in the second information, the third information and the fourth information, an identifier of the network slice is processed by one of: the identifier of the network slice being encrypted by using a key; the identifier of the network slice being truncated; or the identifier of the network slice being mapped. the identifier of the network slice being encrypted by using a key; the identifier of the network slice being truncated; or the identifier of the network slice being mapped.