mhurhangee/patent-ind-claim-en huggingface dataset:
A multifunctional solar energy system, comprising: a converging system comprising at least one light-focusing refractive surface (s1) and one reflective surface (s2), which is arranged below the light-focusing refractive surface (s1) along a solar incident direction; and two solar energy utilization devices (P1, P2) for absorbing and utilizing sunlight; characterised in that at least one of the reflective surface (s ) and the two solar energy utilization devices (P1, P2) is movable and thus called as movable component, wherein the movable component can be moved out of the light path from where it is arranged or be directly removed, wherein the light path means a light path formed after sunlight is converged by the converging system; and in that if the reflective surface (s2) is movable, the two solar energy utilization devices (P1, P2) are respectively provided on the light paths formed before and after the reflective surface (s2) is moved, and in that if the reflective surface (s2) is fixed, the two solar energy utilization devices (P1,P2) are successively provided on the light path after the reflective surface (s2), so that one of the two solar energy utilization devices (P1, P2) is placed onto the light path by moving the movable component. a converging system comprising at least one light-focusing refractive surface (s1) and one reflective surface (s2), which is arranged below the light-focusing refractive surface (s1) along a solar incident direction; and two solar energy utilization devices (P1, P2) for absorbing and utilizing sunlight; characterised in that at least one of the reflective surface (s ) and the two solar energy utilization devices (P1, P2) is movable and thus called as movable component, wherein the movable component can be moved out of the light path from where it is arranged or be directly removed, wherein the light path means a light path formed after sunlight is converged by the converging system; and in that if the reflective surface (s2) is movable, the two solar energy utilization devices (P1, P2) are respectively provided on the light paths formed before and after the reflective surface (s2) is moved, and in that if the reflective surface (s2) is fixed, the two solar energy utilization devices (P1,P2) are successively provided on the light path after the reflective surface (s2), so that one of the two solar energy utilization devices (P1, P2) is placed onto the light path by moving the movable component.
Method for producing a printed circuit board sandwich , characterized in that the method comprises the steps which are executed in the order specified below: manufacturing a first printed circuit board subregion and a second printed circuit board subregion , wherein the first printed circuit board subregion and the second printed circuit board subregion are each provided with components on one side; potting the components in the first printed circuit board subregion using a potting compound ; turning the second printed circuit board subregion , so that the components in the second printed circuit board subregion are arranged opposite the components in the first printed circuit board subregion ; stacking the second printed circuit board subregion onto the first printed circuit board subregion , so that the components in the second printed circuit board subregion are immersed in the potting compound ; and curing the potting compound in order to connect the first printed circuit board subregion and the second printed circuit board subregion to form the printed circuit board sandwich . manufacturing a first printed circuit board subregion and a second printed circuit board subregion , wherein the first printed circuit board subregion and the second printed circuit board subregion are each provided with components on one side; potting the components in the first printed circuit board subregion using a potting compound ; turning the second printed circuit board subregion , so that the components in the second printed circuit board subregion are arranged opposite the components in the first printed circuit board subregion ; stacking the second printed circuit board subregion onto the first printed circuit board subregion , so that the components in the second printed circuit board subregion are immersed in the potting compound ; and curing the potting compound in order to connect the first printed circuit board subregion and the second printed circuit board subregion to form the printed circuit board sandwich .
A hydraulic valve unit that is provided between a master cylinder configured to generate a hydraulic pressure in a working fluid and a slave cylinder actuated by the hydraulic pressure generated in the master cylinder and that is configured to control transmission of the hydraulic pressure generated in the master cylinder to the slave cylinder , the hydraulic valve unit comprising: a valve body ; a main oil passage formed in the valve body and configured to bring a side of the master cylinder and a side of the slave cylinder communicate with each other; a valve mechanism configured to open or close the main oil passage ; a bypass oil passage formed in the valve body and configured to bring an upstream-side oil passage , which is provided on the side of the master cylinder with respect to the valve mechanism of the main oil passage , and a downstream-side oil passage , which is provided on the side of the slave cylinder with respect to the valve mechanism of the main oil passage , communicate with each other; and a one-way valve provided on the bypass oil passage and configured to cause the working fluid to flow in a direction from the upstream-side oil passage to the downstream-side oil passage , characterized in that the main oil passage and a main section of the bypass oil passage are disposed to be arranged with respective axes (C4, C5) parallel to each other, and the main section of the bypass oil passage is disposed at a same height as the main oil passage or at a position higher than that of the main oil passage in a state in which the valve body is attached at a predetermined attachment position. a valve body ; a main oil passage formed in the valve body and configured to bring a side of the master cylinder and a side of the slave cylinder communicate with each other; a valve mechanism configured to open or close the main oil passage ; a bypass oil passage formed in the valve body and configured to bring an upstream-side oil passage , which is provided on the side of the master cylinder with respect to the valve mechanism of the main oil passage , and a downstream-side oil passage , which is provided on the side of the slave cylinder with respect to the valve mechanism of the main oil passage , communicate with each other; and a one-way valve provided on the bypass oil passage and configured to cause the working fluid to flow in a direction from the upstream-side oil passage to the downstream-side oil passage , characterized in that the main oil passage and a main section of the bypass oil passage are disposed to be arranged with respective axes (C4, C5) parallel to each other, and the main section of the bypass oil passage is disposed at a same height as the main oil passage or at a position higher than that of the main oil passage in a state in which the valve body is attached at a predetermined attachment position.
A method of making an isobutylene copolymer comprising: (a) providing a reaction mixture to a reactor comprising isobutylene monomer, and one or more comonomers selected from isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene, substituted styrenes, piperylene and C4 to C10 dienes other than isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene or piperylene as well as a Lewis acid polymerization catalyst, wherein the molar ratio of isobutylene monomer to the comonomer is from 30:1 to 1:1; (b) polymerizing the reaction mixture while maintaining the reactor at a temperature of from 0°C to 35°C and utilizing a reactor residence time of less than 20 minutes to produce a crude isobutylene copolymer in a polymerization mixture; and (c) recovering a purified isobutylene copolymer from the polymerization mixture having a molecular weight, Mn, of from 200 to 20,000 Daltons, with the provisos that (i) when the comonomer is isoprene, butadiene or mixtures thereof, the purified isobutylene copolymer has a molecular weight, M n , of from 200 to 2500 Daltons and (ii) when the comonomer comprises a substituted styrene the purified copolymer has a molecular weight, Mn, of from 200 to 5000 Daltons. (a) providing a reaction mixture to a reactor comprising isobutylene monomer, and one or more comonomers selected from isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene, substituted styrenes, piperylene and C4 to C10 dienes other than isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene or piperylene as well as a Lewis acid polymerization catalyst, wherein the molar ratio of isobutylene monomer to the comonomer is from 30:1 to 1:1; (b) polymerizing the reaction mixture while maintaining the reactor at a temperature of from 0°C to 35°C and utilizing a reactor residence time of less than 20 minutes to produce a crude isobutylene copolymer in a polymerization mixture; and (c) recovering a purified isobutylene copolymer from the polymerization mixture having a molecular weight, Mn, of from 200 to 20,000 Daltons,
A non-oriented electrical steel sheet consisting of, based on 100 wt% of a total composition thereof, C at more than 0 wt% and 0.004 wt% or less, Si at 2.5 wt% to 3.5 wt%, Al at 0.5 wt% to 1.8 wt%, Mn at 0.05 wt% to 0.9 wt%, N at more than 0 wt% and 0.0030 wt% or less, S at more than 0 wt% and 0.0030 wt% or less, P at 0.005 wt% to 0.08 wt%, Sn at 0.01 wt% to 0.08 wt%, Sb at 0.005 wt% to 0.05 wt%, Ti at more than 0 wt% and 0.0030 wt% or less, Nb at more than 0 wt% and 0.0035 wt% or less, V at 0 more than 0 wt% and.0040 wt% or less, B at 0.0003 wt% to 0.0020 wt%, and the remaining portion being Fe and impurities, wherein a value of ([Ti]+0.8[Nb]+0.5[V])/(10 ∗ [B]) is 0.17 to 7.8, wherein [P]+[Sn]+[Sb] is 0.01 wt% to 0.1 wt%, wherein a grain size of the electrical steel sheet is 60 μm to 95 μm; wherein, when a rolling direction of the electrical steel sheet corresponds to an x-axis, a width direction thereof corresponds to a y-axis, and a normal direction of an xy plane thereof corresponds to a z-axis, a value of a length of the grain in the y-axis direction divided by a length of the grain in the z-axis direction measured on a yz plane is 1.18 to 1.5; wherein [Ti], [Nb], [V], [B], [P], [Sn], and [Sb] represent an addition amount in wt% of Ti, Nb, V, B, P, Sn, and Sb, respectively.
A storage container for a saddle riding-type vehicle , the container comprising an electric device requiring a power supply for the operation thereof, comprising: - a wireless power receiver configured to obtain electrical power from an electromagnetic field generated by a wireless power transmitter ; - a power supply circuit operatively connected to the wireless power receiver and to the electric device to supply the electric device with the electrical power obtained from the electromagnetic field, wherein the power supply circuit forms part of the storage container and is operatively interposed between the wireless power receiver and the electric device ; - a container body having a base and a cover or door , and characterised in that the wireless power receiver is integrated in the base of the container body wherein the power supply circuit further comprises control device which is operable for selectively powering the electric device and which is a manual control device positioned outside the storage container . - a wireless power receiver configured to obtain electrical power from an electromagnetic field generated by a wireless power transmitter ; - a power supply circuit operatively connected to the wireless power receiver and to the electric device to supply the electric device with the electrical power obtained from the electromagnetic field, wherein the power supply circuit forms part of the storage container and is operatively interposed between the wireless power receiver and the electric device ; - a container body having a base and a cover or door , and characterised in that the wireless power receiver is integrated in the base of the container body wherein the power supply circuit further comprises control device which is operable for selectively powering the electric device and which is a manual control device positioned outside the storage container . characterised in that the wireless power receiver is integrated in the base of the container body wherein the power supply circuit further comprises control device which is operable for selectively powering the electric device and which is a manual control device positioned outside the storage container .
A retaining frame for holding plug-connector modules and/or plug connectors , - wherein the retaining frame has a fixing surface and the plug-connector modules and/or plug connectors are held in the fixing surface - wherein the plug-connector modules and/or the plug connectors can be mounted on different fixing planes (S, M) - wherein the fixing surface has at least one receiving space for a plug connector , preferably a power plug connector - wherein the fixing surface has at least one receiving space for plug-connector modules , preferably for control modules. - Wherein the plug-connector modules and the plug connectors can be mounted on different fixing planes (S, M) and - Wherein the fixing plane (M) of the plug-connector modules lies above the fixing plane (S) of the plug connectors. - Wherein the receiving space for a plug connector is substantially circular and the receiving space for plug-connector modules is substantially rectangular in configuration. - Wherein the retaining frame substantially comprises two angular plates and a module carrier , wherein the angular plates are oriented inversely to one another, - Wherein the surfaces of the two angular plates spaced apart parallel to one another form the side walls of the retaining frame and - Wherein the contact surfaces of the angular plates are connected to the module carrier and form the fixing surface of the retaining frame . - wherein the retaining frame has a fixing surface and the plug-connector modules and/or plug connectors are held in the fixing surface - wherein the plug-connector modules and/or the plug connectors can be mounted on different fixing planes (S, M) - wherein the fixing surface has at least one receiving space for a plug connector , preferably a power plug connector - wherein the fixing surface has at least one receiving space for plug-connector modules , preferably for control modules. - Wherein the plug-connector modules and the plug connectors can be mounted on different fixing planes (S, M) and - Wherein the fixing plane (M) of the plug-connector modules lies above the fixing plane (S) of the plug connectors. - Wherein the receiving space for a plug connector is substantially circular and the receiving space for plug-connector modules is substantially rectangular in configuration. - Wherein the retaining frame substantially comprises two angular plates and a module carrier , wherein the angular plates are oriented inversely to one another, - Wherein the surfaces of the two angular plates spaced apart parallel to one another form the side walls of the retaining frame and - Wherein the contact surfaces of the angular plates are connected to the module carrier and form the fixing surface of the retaining frame .
A network system for providing data beacon pulses, whereby complete files are transferred, without Internet Protocol, IP, packetization, via a constant stream of pulses of information, each pulse containing a complete file, from one region to one or more other regions over a Slinghop segment, the Slinghop segment being a network segment integrated over an existing IP pathway, each Slinghop segment having an origin IP address and a target IP address, whereby data traffic to a segment end is written to an associated parallel file system, the network system comprising a first node (13-502) in a first region, comprising a first read queue (13-RQ502), a first write queue (13-WQ502), and a first parallel file system (13-602); a second node (13-506) in a second region, comprising a second read queue (13-RQ506), a second write queue (13-WQ506), and a second parallel file system (13-606); wherein the first node 13-502 is adapted to write first data from the first write queue (13-WQ502) to the second parallel file system (13-606) via remote direct memory access, RDMA; and wherein the second node (13-506) is adapted to read the first data from the second parallel file system (13-606) and is further adapted to place the first data in the second read queue (13-RQ506), wherein the second node is adapted to write second data from the second write queue (13-WQ506) to the first parallel file system (13-602) via remote direct memory access, RDMA; and wherein the first node (13-502) is adapted to read the second data from the first parallel file system (13-602) and is further adapted to place the second data in the first read queue (13-RQ502). a first node (13-502) in a first region, comprising a first read queue (13-RQ502), a first write queue (13-WQ502), and a first parallel file system (13-602); a second node (13-506) in a second region, comprising a second read queue (13-RQ506), a second write queue (13-WQ506), and a second parallel file system (13-606); wherein the first node 13-502 is adapted to write first data from the first write queue (13-WQ502) to the second parallel file system (13-606) via remote direct memory access, RDMA; and wherein the second node (13-506) is adapted to read the first data from the second parallel file system (13-606) and is further adapted to place the first data in the second read queue (13-RQ506), wherein the second node is adapted to write second data from the second write queue (13-WQ506) to the first parallel file system (13-602) via remote direct memory access, RDMA; and wherein the first node (13-502) is adapted to read the second data from the first parallel file system (13-602) and is further adapted to place the second data in the first read queue (13-RQ502).
Backplane for electrically connecting electrical components, the backplane comprising - a carrier plate , - conductor tracks which each extend on and/or in the carrier plate , and - at least one cooling element arranged on a conductor track for cooling the conductor track , characterised in that at least one cooling element is a cooling channel for conducting a cooling fluid, wherein at least one cooling channel at least partially surrounds a conductor track . - a carrier plate , - conductor tracks which each extend on and/or in the carrier plate , and - at least one cooling element arranged on a conductor track for cooling the conductor track ,
Device for controlling an electrical switchgear, comprising a capacitive power supply device and a control member capable of controlling said electrical switchgear when the power supply voltage is below a predetermined actuation threshold (Ut), the capacitive power supply device comprising a power supply module having two input terminals and a power supply voltage (U e ) between the two terminals, and capable of providing a power supply current to the control member , the power supply module comprising a first capacitor connected at the input of a voltage rectification unit , said control member being connected at the output of the rectification unit , the power supply device further comprising a second capacitor and a first switch capable of connecting the second capacitor in series or in parallel at the output to the first capacitor as a function of a comparison of the power supply voltage (U e ) with a capacitor switching threshold value (U c ).
A port implantable in a patient for delivering infusate subcutaneously to the patient includes a reservoir body having an opening, an upper portion and a lower portion that includes the base of the body; a resealable septum having at least a lower portion fitted to the opening at the upper portion of the body to form a reservoir inside the body, the septum providing access to the reservoir; an outlet extending from the lower portion of the body in fluid communication with the reservoir adapted to be connected a catheter for outputting infusate stored in the reservoir; characterised in that the septum has an impression configured as an identification indicia to convey information about the port filled with a radiopaque material and covered by a clear cover layer so that the identification indicia may be viewed visually and is viewable under radiographic imaging when the port is implanted in the patient.
A terminal apparatus (26-6A) comprising: a receiver unit configured to receive, from a base station apparatus (22-6A), a dedicated signaling comprising first information used for configuring a first periodicity, the first periodicity being for a first measurement timing; and a processor unit configured to perform, based on the first periodicity, a measurement of a first block comprising a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH; wherein the receiver unit is configured to receive, from the base station apparatus (22-6A), the dedicated signaling comprising second information used for configuring a second periodicity, the second periodicity being for a second measurement timing, the processor unit is configured to perform, based on the second periodicity, the measurement of a second block comprising the PSS, the SSS and the PBCH, a value of the second periodicity is always configured as a smaller value than a value of the first periodicity, and the dedicated signaling is different from the PBCH. a receiver unit configured to receive, from a base station apparatus (22-6A), a dedicated signaling comprising first information used for configuring a first periodicity, the first periodicity being for a first measurement timing; and a processor unit configured to perform, based on the first periodicity, a measurement of a first block comprising a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH; wherein the receiver unit is configured to receive, from the base station apparatus (22-6A), the dedicated signaling comprising second information used for configuring a second periodicity, the second periodicity being for a second measurement timing, the processor unit is configured to perform, based on the second periodicity, the measurement of a second block comprising the PSS, the SSS and the PBCH, a value of the second periodicity is always configured as a smaller value than a value of the first periodicity, and the dedicated signaling is different from the PBCH.