mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless coupling system comprising: a first coil , wherein an alternating current is present on the first coil; a second coil , the second coil being inductively coupled to the first coil; an electrostatic shield for the first coil, wherein the electrostatic shield is inductively coupled to the first coil, the electrostatic shield having a gap extending the axial length of the electrostatic shield; a variable impedance element coupled across the gap of the electrostatic shield; and a control loop , wherein the control loop controls the impedance of the variable impedance element based on the current on the first coil to maximize the amplitude of the current on the first coil; wherein the control loop is configured to: generate a control voltage; apply a dither signal to the control voltage; apply the dithered control voltage to the variable impedance element; detect a variation signal in the amplitude of the current on the first coil; and increase the control voltage when the detected variation signal is in phase with the dither signal, or decrease the control voltage when the detected variation signal is out of phase with the dither signal. a first coil , wherein an alternating current is present on the first coil; a second coil , the second coil being inductively coupled to the first coil; an electrostatic shield for the first coil, wherein the electrostatic shield is inductively coupled to the first coil, the electrostatic shield having a gap extending the axial length of the electrostatic shield; a variable impedance element coupled across the gap of the electrostatic shield; and a control loop , wherein the control loop controls the impedance of the variable impedance element based on the current on the first coil to maximize the amplitude of the current on the first coil; wherein the control loop is configured to: generate a control voltage; apply a dither signal to the control voltage; apply the dithered control voltage to the variable impedance element; detect a variation signal in the amplitude of the current on the first coil; and increase the control voltage when the detected variation signal is in phase with the dither signal, or decrease the control voltage when the detected variation signal is out of phase with the dither signal. generate a control voltage; apply a dither signal to the control voltage; apply the dithered control voltage to the variable impedance element; detect a variation signal in the amplitude of the current on the first coil; and increase the control voltage when the detected variation signal is in phase with the dither signal, or decrease the control voltage when the detected variation signal is out of phase with the dither signal.
Monitoring system for a software defined network , SDN, comprising at least one monitored device (191, 391-396, 1099, 1197, 1199, 1261, 1361), wherein the monitoring system comprises at least one monitoring instance (104, 370-375, 570, 660, 661, 860, 861, 1070, 1170, 1171, 1270, 1271, 1272, 1370, 1371, 1372), wherein the at least one monitoring instance (104, 370-375, 570, 660, 661, 860, 861, 1070, 1170, 1171, 1270, 1271, 1272, 1370, 1371, 1372) is a hardware or software monitoring component being connected to and adapted to operate at least one probe for monitoring the at least one monitored device (191, 391-396, 1099, 1197, 1199, 1261, 1361), wherein the monitoring system further comprises a monitoring orchestrator and at least one sub-monitoring orchestrator , wherein the monitoring orchestrator is adapted to determine at least one first parameter to be monitored according to a monitoring request and to orchestrate monitoring the at least one first parameter by sending instructions to the at least one sub-monitoring orchestrator to implement the monitoring requirements, and wherein the at least one sub-monitoring orchestrator is adapted to determine at least one second parameter to be monitored according to the at least one first parameter and orchestrate monitoring the at least one second parameter; the system further comprising at least one monitoring server (360-375, 570, 660, 661, 860, 861, 1070, 1170, 1171, 1270, 1271, 1272, 1370, 1371, 1372) being adapted to - determine at least one third parameter to be monitored according to the at least one second parameter, and - operate the monitoring instances (104, 370-375, 570, 660, 661, 860, 861, 1070, 1170, 1171, 1270, 1271, 1272, 1370, 1371, 1372) for monitoring the at least one third parameter by use of the at least one probe. - determine at least one third parameter to be monitored according to the at least one second parameter, and - operate the monitoring instances (104, 370-375, 570, 660, 661, 860, 861, 1070, 1170, 1171, 1270, 1271, 1272, 1370, 1371, 1372) for monitoring the at least one third parameter by use of the at least one probe.
A method of receiving a signal in a wireless communication system, the method performed by a user equipment, UE, and comprising: determining (S101) a number, N RBG , of resource block groups, RBGs, that are allocated to the UE for a downlink bandwidth, wherein the downlink bandwidth comprises a plurality of resource blocks, and wherein the total number of the plurality of allocated resource blocks is N DL RB ; determining (S102) a size of each of the N RBG RBGs, wherein said size is defined by the number of resource blocks within an RBG; and receiving the signal through at least one RBG of the N RBG RBGs, wherein based on N DL RB not being a multiple of P, where P is a size of one RBG configured for the downlink bandwidth: i) fit for N RBG -1 RBGs among the N RBG RBGs, a size of each RBG is equal to the size P, and ii) for only one RBG among the N RBG RBGs, other than resource blocks in the N RBG -1 RBGs, its size is larger than P. determining (S101) a number, N RBG , of resource block groups, RBGs, that are allocated to the UE for a downlink bandwidth, wherein the downlink bandwidth comprises a plurality of resource blocks, and wherein the total number of the plurality of allocated resource blocks is N DL RB ; determining (S102) a size of each of the N RBG RBGs, wherein said size is defined by the number of resource blocks within an RBG; and receiving the signal through at least one RBG of the N RBG RBGs, wherein based on N DL RB not being a multiple of P, where P is a size of one RBG configured for the downlink bandwidth: i) fit for N RBG -1 RBGs among the N RBG RBGs, a size of each RBG is equal to the size P, and ii) for only one RBG among the N RBG RBGs, other than resource blocks in the N RBG -1 RBGs, its size is larger than P. i) fit for N RBG -1 RBGs among the N RBG RBGs, a size of each RBG is equal to the size P, and ii) for only one RBG among the N RBG RBGs, other than resource blocks in the N RBG -1 RBGs, its size is larger than P.
Electrical contact arrangement having a first conductor section and a second conductor section , each having a contact region , which contact regions can be braced against one another using a bracing device , wherein the contact regions are mounted such that they can be tilted in relation to one another and one of the contact regions has a bearing shell, wherein the bracing device traverses, in particular passes through, a convexly curved contact region of a conductor section and the convex contact region is curved in a dimensionally complementary manner with respect to the contact region and is arranged on the end of a substantially cylindrical conductor section and spans a cavity within a conductor section , characterized in that casing-side access to the bracing device is arranged via the cavity , and wherein a contact-making device is arranged between the first and the second conductor section .
A fibre band opening device for an open-end spinning device, comprising a feed tray , a fibre band pull-in cylinder and an opening roller having an opening roller clothing , the tips of which lie on a circular cylindrical surface , wherein the fibre band pull-in cylinder is designed to transport, in conjunction with a clamping surface of the feed tray , a feed fibre band towards the opening roller , the feed tray has a support surface for fixing a fibre tuft, which is processed by the opening roller by combing, and the distance of the support surface from the circular cylindrical surface is tapered in the fibre transport direction to a minimum distance, and the feed tray has a transition area having a convex curvature between the clamping surface and the support surface , and the minimum distance of the support surface from the circular cylindrical surface is less than 1.5 millimetres characterised in that the support surface has a distance of between 4 and 8 millimetres from the circular cylindrical surface at the beginning of the support surface with respect to the fibre transport direction. a feed tray , a fibre band pull-in cylinder and an opening roller having an opening roller clothing , the tips of which lie on a circular cylindrical surface , wherein the fibre band pull-in cylinder is designed to transport, in conjunction with a clamping surface of the feed tray , a feed fibre band towards the opening roller , the feed tray has a support surface for fixing a fibre tuft, which is processed by the opening roller by combing, and the distance of the support surface from the circular cylindrical surface is tapered in the fibre transport direction to a minimum distance, and the feed tray has a transition area having a convex curvature between the clamping surface and the support surface , and the minimum distance of the support surface from the circular cylindrical surface is less than 1.5 millimetres characterised in that the support surface has a distance of between 4 and 8 millimetres from the circular cylindrical surface at the beginning of the support surface with respect to the fibre transport direction.
A system for confirming a digital signature of an electronic message, the system comprising: an electronic controller configured to generate the electronic message in response to an installation of a secret key on the electronic controller , the electronic message comprising information about the installation of the secret key, and wherein the electronic message includes a notification indicating a status of the installation of the secret key, digitally sign the electronic message using a manufacturer private key, after digitally signing the electronic message, encrypt the electronic message, store the electronic message in a memory , access the stored electronic message in response to a request by a user, decrypt the electronic message, confirm the digital signature of the decrypted electronic message using a manufacturer public key, generate a confirmation message in response to the confirmation of the digital signature, and send the confirmation message to the user. an electronic controller configured to generate the electronic message in response to an installation of a secret key on the electronic controller , the electronic message comprising information about the installation of the secret key, and wherein the electronic message includes a notification indicating a status of the installation of the secret key, digitally sign the electronic message using a manufacturer private key, after digitally signing the electronic message, encrypt the electronic message, store the electronic message in a memory , access the stored electronic message in response to a request by a user, decrypt the electronic message, confirm the digital signature of the decrypted electronic message using a manufacturer public key, generate a confirmation message in response to the confirmation of the digital signature, and send the confirmation message to the user.
A tamper detection device comprising an integrated circuit (IC) chip comprising at least four terminals, the device further comprising an antenna and a tamper loop which may be in an open or closed state, wherein the tamper loop is coupled between the first and second terminal of the IC chip, and the antenna is coupled between the third and fourth terminal of the IC chip, and wherein the IC chip comprises power supply circuitry, wireless communication circuitry for receiving and sending signals through the antenna, and tamper detection circuitry for detecting the status of the tamper loop , characterized in that : - the device further comprises a light emitting diode coupled also between the first and second terminals , and - the IC chip comprises circuitry for activating or deactivating the supply of current to the diode , following a command signal received by the antenna , - the device is configured so that: ∘ a signal transmitted to the device effective to activate the supply of current to the diode causes the diode to be lit when the tamper loop is in a predefined state, ∘ said signal fails to light the diode , when the tamper loop is in the state opposite to the predefined state. - the device further comprises a light emitting diode coupled also between the first and second terminals , and - the IC chip comprises circuitry for activating or deactivating the supply of current to the diode , following a command signal received by the antenna , - the device is configured so that: ∘ a signal transmitted to the device effective to activate the supply of current to the diode causes the diode to be lit when the tamper loop is in a predefined state, ∘ said signal fails to light the diode , when the tamper loop is in the state opposite to the predefined state. ∘ a signal transmitted to the device effective to activate the supply of current to the diode causes the diode to be lit when the tamper loop is in a predefined state, ∘ said signal fails to light the diode , when the tamper loop is in the state opposite to the predefined state.
A method for making a connection assembly with torque limitation, wherein the connection assembly comprises at least one nut with an internal thread, a bolt with an external thread, and a body with a stop surface and an opening; wherein the bolt is arranged in the opening and, starting from the body, extends outwardly through the stop surface; wherein the nut extends between a first end and a second end along an axial direction and, starting from the first end, has a hollow cylindrical first portion with the internal thread, wherein at least one first stop element at least partially running circumferentially along a circumferential direction and extending in a radial direction is arranged on a cylindrical outer circumferential surface; wherein the method comprises at least the following steps: a) arranging the nut via the first end on the bolt and screwing it towards the stop surface onto the external thread with at most a first torque until the first stop element comes into contact with the stop surface, wherein, as a result of the contacting, a second torque required for further screwing is higher than the first torque, and wherein, when the nut is further screwed with at least the second torque and the second torque is higher than a limit torque defined by the first stop element b) breaking off the first stop element from the outer circumferential surface. a) arranging the nut via the first end on the bolt and screwing it towards the stop surface onto the external thread with at most a first torque until the first stop element comes into contact with the stop surface, wherein, as a result of the contacting, a second torque required for further screwing is higher than the first torque, and wherein, when the nut is further screwed with at least the second torque and the second torque is higher than a limit torque defined by the first stop element b) breaking off the first stop element from the outer circumferential surface.
A security device comprising: a) a layer of a medium having a low index of refraction n low ; b) a diffractive microstructure on the medium having a low index of refraction n low ; c) a waveguiding layer having a high index of refraction n high , which comprises a luminescent material, on the diffractive microstructure; and optionally d) a layer of a medium having a low index of refraction n low ; or A) a layer of a medium having a low index of refraction n low ; B) a waveguiding layer having a high index of refraction n high ; which comprises a luminescent material, on the medium having a low index of refraction n low; C) a diffractive microstructure on the waveguiding layer having a high index of refraction n high ; and optionally D) a layer of a medium having a low index of refraction n low ; wherein the refractive index difference between the medium, or substrate having a low index of refraction n low and the waveguiding layer is at least 0.1; the microstructure period (Λ) is in the range of from 100 to 500 nm; the thickness (d) of the waveguiding layer is in the range of from 60 to 200 nm; and the microstructure depth (t) is in the range of from 100 to 300 nm, the security device being characterized in that : the diffractive microstructure consists of at least two part-areas adjacent or nearby to one another, wherein one part-area comprises one groves orientation and the other part-area comprises another different groves orientation and/or one part-area comprises one grating period and the other part-area comprises another different grating period, wherein both part-areas comprise a logo in the diffractive microstructure, upon irradiation of the luminescent material the first logo appears bright and the second logo appears dark depending on the orientation of the groves and upon rotation the first logo appears dark and the second logo appears bright. a) a layer of a medium having a low index of refraction n low ; b) a diffractive microstructure on the medium having a low index of refraction n low ; c) a waveguiding layer having a high index of refraction n high , which comprises a luminescent material, on the diffractive microstructure; and optionally d) a layer of a medium having a low index of refraction n low ; or A) a layer of a medium having a low index of refraction n low ; B) a waveguiding layer having a high index of refraction n high ; which comprises a luminescent material, on the medium having a low index of refraction n low; C) a diffractive microstructure on the waveguiding layer having a high index of refraction n high ; and optionally D) a layer of a medium having a low index of refraction n low ;
A composition comprising a first gRNA molecule comprising a targeting domain that comprises the nucleotide sequence set forth in SEQ ID NO: 1977, and a second gRNA molecule comprising a targeting domain that comprises the nucleotide sequence set forth in SEQ ID NO: 2048.
Composition comprising: - an aqueous pollen extract from Secale cereale L.; - an aqueous pollen extract from Zea mays L.; - an aqueous pollen extract from Pinus silvestris L.; - an aqueous pollen extract from Dactylis glomerata L.; and - an aqueous pistil extract from Zea mays L., for use in the treatment and/or prevention of infertility in men with oligospermia, cryptozoospermia, azoospermia, asthenospermia, oligoasthenospermia and/or teratospermia, characterized in that the pollen extract and the pistil extract are aqueous extracts, the extraction of which is carried out at a temperature of less than 45°C. - an aqueous pollen extract from Secale cereale L.; - an aqueous pollen extract from Zea mays L.; - an aqueous pollen extract from Pinus silvestris L.; - an aqueous pollen extract from Dactylis glomerata L.; and - an aqueous pistil extract from Zea mays L., for use in the treatment and/or prevention of infertility in men with oligospermia, cryptozoospermia, azoospermia, asthenospermia, oligoasthenospermia and/or teratospermia, characterized in that the pollen extract and the pistil extract are aqueous extracts, the extraction of which is carried out at a temperature of less than 45°C.
A process for the removal of mercury from a mercury-containing hydrocarbon fluid feed comprising the steps of: (i) contacting the mercury-containing hydrocarbon fluid feed with an ionic liquid having the formula: [Cat + ][X - ] wherein: [Cat + ] represents one or more cationic species, and [X - ] represents one or more anionic species, in a hydrocarbon:ionic liquid volume ratio of from 100:1 to 10,000:1; and (ii) separating from the ionic liquid a hydrocarbon fluid product having a reduced mercury content compared to the mercury-containing hydrocarbon feed. (i) contacting the mercury-containing hydrocarbon fluid feed with an ionic liquid having the formula: [Cat + ][X - ] wherein: [Cat + ] represents one or more cationic species, and [X - ] represents one or more anionic species, in a hydrocarbon:ionic liquid volume ratio of from 100:1 to 10,000:1; and wherein: [Cat + ] represents one or more cationic species, and [X - ] represents one or more anionic species, (ii) separating from the ionic liquid a hydrocarbon fluid product having a reduced mercury content compared to the mercury-containing hydrocarbon feed.
A stent holder for removeably holding a stent during a coating process characterized in that the stent holder comprises a stent mounting portion comprising at least two arms upon which the stent is mounted, the at least two arms defining a hollow space therebetween, and an electrically chargeable section separate from the stent mounting portion, wherein the arms form an elliptical portion configured to exert force on an inner surface of the stent , wherein the arms are coupled to the electrically chargeable section that electrically charges the stent during the coating process and at least a portion of the electrically chargeable section includes a dimension larger than an inner diameter of the stent so that the stent sits on the electrically chargeable section , and wherein when the elliptical portion exerts force on the inner surface of the stent , the arms diverge from a central axis of the stent holder , making at least one bend, and converge at the central axis of the stent holder , or the arms diverge from a central axis of the stent holder and arc to converge at the central axis of the stent holder , the arms touching one another both where the arms diverge and where the arms converge.
A crankshaft , comprising: a first shaft ; a second shaft ; a first crank arm disposed at an end of the first shaft , the first crank arm being provided with a first oil channel , and the first oil channel penetrating through the first shaft ; a second crank arm disposed at an end of the second shaft , the second crank arm being provided with a second oil channel , and the second oil channel penetrating through the second shaft ; and a recessed portion disposed on an end surface of the first crank arm facing away from the first shaft or on an end surface of the second crank arm facing away from the second shaft , the second crank arm being configured to be connected to the first crank arm in such a manner the first oil channel and the second oil channel are in communication with each other via the recessed portion , characterized in that , wherein the second shaft is eccentrically arranged relative to an axis of the first shaft in a first direction, and the recessed portion at least partially extends in the first direction. a first shaft ; a second shaft ; a first crank arm disposed at an end of the first shaft , the first crank arm being provided with a first oil channel , and the first oil channel penetrating through the first shaft ; a second crank arm disposed at an end of the second shaft , the second crank arm being provided with a second oil channel , and the second oil channel penetrating through the second shaft ; and a recessed portion disposed on an end surface of the first crank arm facing away from the first shaft or on an end surface of the second crank arm facing away from the second shaft , the second crank arm being configured to be connected to the first crank arm in such a manner the first oil channel and the second oil channel are in communication with each other via the recessed portion , characterized in that , wherein the second shaft is eccentrically arranged relative to an axis of the first shaft in a first direction, and the recessed portion at least partially extends in the first direction.