mhurhangee/patent-ind-claim-en huggingface dataset:
A planographic printing plate precursor comprising, in this order, (i) a support; (ii) an image recording layer; and (iii) an overcoat layer which is an outermost layer, and which includes particles at an occupation area ratio of the particles in a surface of the overcoat layer of ≥ 30%, the occupation area ratio being determined by - applying, if necessary, a carbon or Pt-Pd film to a sample as a conductive treatment such that the thickness thereof is set to 3 nm, - observing a reflection electron image at an acceleration voltage of 5-10 kV using a field emission scanning electron microscope (FE-SEM), - performing a binarization processing on an image captured by setting the observation magnification of 1,000 times and N = 3 using a difference in contrast between the particles and the surrounding area thereof with image processing software, and - measuring the area of particles occupying 1 μm 2 . (i) a support; (ii) an image recording layer; and (iii) an overcoat layer which is an outermost layer, and which includes particles at an occupation area ratio of the particles in a surface of the overcoat layer of ≥ 30%, - applying, if necessary, a carbon or Pt-Pd film to a sample as a conductive treatment such that the thickness thereof is set to 3 nm, - observing a reflection electron image at an acceleration voltage of 5-10 kV using a field emission scanning electron microscope (FE-SEM), - performing a binarization processing on an image captured by setting the observation magnification of 1,000 times and N = 3 using a difference in contrast between the particles and the surrounding area thereof with image processing software, and - measuring the area of particles occupying 1 μm 2 .
An active electrode material comprising a mixed niobium oxide, wherein the mixed niobium oxide has the composition M1 a Zn 2-a M3 b Nb 34-b O 87-c , wherein: M1 is selected from Mg, Zr, V, Cr, Mo, W, Fe, Cu, Al, Ge, P, and mixtures thereof; M3 is selected from Ti, Zr, V, Cr, Mo, W, Fe, Cu, Zn, Al, P, and mixtures thereof; 0 < a < 1.0; 0 < b ≤ 3.4; -0.5 ≤ c ≤ 4.35. M1 is selected from Mg, Zr, V, Cr, Mo, W, Fe, Cu, Al, Ge, P, and mixtures thereof; M3 is selected from Ti, Zr, V, Cr, Mo, W, Fe, Cu, Zn, Al, P, and mixtures thereof; 0 < a < 1.0; 0 < b ≤ 3.4; -0.5 ≤ c ≤ 4.35.
A system for producing an in-situ foam, said system comprising the components one or more inorganic fillers A) at from 50 to 98 wt%, one or more cationic or amphoteric polymers B) at from 1 to 48 wt%, one or more surfactants C) at from 0.5 to 48 wt%, one or more crosslinkers D) capable of reacting with said polymers B) at from 0.01 to 5 wt%, one or more cell regulators E), selected from silicones, siliconates and carbon, at from 0.5 to 10 wt%, one or more additives F) at from 0 to 20 wt%, wherein the weight percentages of said components A) to F) are based on the nonaqueous fractions and the sum total of A) to F) adds up to 100 wt%.
Inductive charging arrangement , in particular for the inductive charging of motor vehicles, having a coil device , having a ferrite plate arrangement arranged adjacent to the coil device , wherein a first cover element covering this ferrite plate arrangement being arranged on a first surface of the ferrite plate arrangement , and a second cover element covering this ferrite plate arrangement being arranged on a second surface of the ferrite plate arrangement , which is opposite the first surface of the ferrite plate arrangement , wherein the ferrite plate arrangement being arranged between the first cover element and the second cover element , wherein the second cover element extends between the ferrite plate arrangement and the coil device , wherein the ferrite plate arrangement comprises a plurality of segments which are movable with respect to each other and the first cover element and the second cover element are made of a rubber, wherein the rubber is a butyl rubber, and wherein the charging arrangement has a bottom plate and a cover plate , wherein the bottom plate has at least one channel in its interior for conducting a cooling medium and the cover plate is designed as a heat protection element.
A packet processing method, which is applied in a network device , wherein the method comprises: receiving a first packet; determining the number of second packets received within a preset duration after the first packet passes basic detection successfully, wherein packet information of the second packet is identical to first packet information of the first packet; determining whether the number is greater than a preset number threshold; if the number is greater than the preset number threshold, determining the first packet as a suspected attack packet, removing a first table entry from a fast forwarding table so as to avoid the direct forwarding of the first packet by the network device , and performing attack detection on the first packet; if the number is not greater than the preset number threshold, detecting whether there is the first table entry in the fast forwarding table; if not, performing attack detection on the first packet; if so, forwarding the first packet; wherein, if the first packet passes the attack detection successfully, the network device establishes in the fast forwarding table a table entry containing the second packet information of the first packet. receiving a first packet; determining the number of second packets received within a preset duration after the first packet passes basic detection successfully, wherein packet information of the second packet is identical to first packet information of the first packet; determining whether the number is greater than a preset number threshold; if the number is greater than the preset number threshold, determining the first packet as a suspected attack packet, removing a first table entry from a fast forwarding table so as to avoid the direct forwarding of the first packet by the network device , and performing attack detection on the first packet; if the number is not greater than the preset number threshold, detecting whether there is the first table entry in the fast forwarding table; if not, performing attack detection on the first packet; if so, forwarding the first packet; if not, performing attack detection on the first packet; if so, forwarding the first packet; wherein, if the first packet passes the attack detection successfully, the network device establishes in the fast forwarding table a table entry containing the second packet information of the first packet.
A method, comprising: receiving , by a User Equipment, UE, (105; 505) from a first Transmission and Reception Point, TRP, of a network, a Positioning Reference Signal, PRS; and sending, by the UE (105; 505), a response to the network, wherein: the sending of the response comprises sending , by the UE (105; 505), to the network, an indicator, the indicator indicating whether the UE (105; 505) has performed a measurement based on the Positioning Reference Signal, received via a line-of-sight path; calculating, by the UE (105; 505), a Power Delay Profile, PDP, or Channel Impulse Response, CIR, corresponding to the Positioning Reference Signal; determining, by the UE (105; 505), whether a rise time of a highest peak of the PDP or CIR is sharp or gradual; and generating, by the UE (105; 505), the indicator, based on the determination. receiving , by a User Equipment, UE, (105; 505) from a first Transmission and Reception Point, TRP, of a network, a Positioning Reference Signal, PRS; and sending, by the UE (105; 505), a response to the network, wherein: the sending of the response comprises sending , by the UE (105; 505), to the network, an indicator, the indicator indicating whether the UE (105; 505) has performed a measurement based on the Positioning Reference Signal, received via a line-of-sight path; calculating, by the UE (105; 505), a Power Delay Profile, PDP, or Channel Impulse Response, CIR, corresponding to the Positioning Reference Signal; determining, by the UE (105; 505), whether a rise time of a highest peak of the PDP or CIR is sharp or gradual; and generating, by the UE (105; 505), the indicator, based on the determination.
Anti-creep device for screwed assemblies, comprising a first part , in particular in the form of a panel, made of a material that is insufficiently resistant to the clamping forces applied to it in the screwed assembly, such as a plastic material, a second support part to which the first part is fixed by means of a screw passing at least the first part through a through-hole made in said first part, and of the type that comprises an anti-creep ring made of a material that is resistant to clamping forces, and is designed to be disposed in the through-hole passing through the first part in order to withstand the clamping forces, wherein the anti-creep ring is arranged in a retaining bracket , which, while retaining the ring, may be mounted in the through-hole , the retaining bracket being provided with elements holding the retaining bracket in the through-hole , characterized in that the retaining bracket is provided with end elements bearing on the opposite ends of the ring and retaining the ring in the retaining bracket .
An assembly comprising: an anti-rotational locking apparatus for locking a cable in a particular rotational position with respect to a housing ; and a cable having a portion with an external profile ; wherein the anti-rotational locking apparatus comprises: a sleeve having an internal profile for slidably receiving the cable therethrough, wherein the external profile of the cable is configured to positively engage with the internal profile of the sleeve; and a housing; wherein the sleeve has a flange with a first opening therein and the housing has a second opening therein; wherein the anti-rotational locking apparatus comprises a locking pin , the locking pin being insertable in the openings; and the assembly is characterized in that the first opening is arranged for slidable alignment with the second opening from an unaligned position such that when the openings are aligned, the locking pin is insertable in the openings to lock the flange to the housing and thereby prevent rotation of the flange, and of the cable extending therethrough and engaged therewith, with respect to the housing. an anti-rotational locking apparatus for locking a cable in a particular rotational position with respect to a housing ; and a cable having a portion with an external profile ; wherein the anti-rotational locking apparatus comprises: a sleeve having an internal profile for slidably receiving the cable therethrough, wherein the external profile of the cable is configured to positively engage with the internal profile of the sleeve; and a housing; wherein the sleeve has a flange with a first opening therein and the housing has a second opening therein; wherein the anti-rotational locking apparatus comprises a locking pin , the locking pin being insertable in the openings; and the assembly is characterized in that the first opening is arranged for slidable alignment with the second opening from an unaligned position such that when the openings are aligned, the locking pin is insertable in the openings to lock the flange to the housing and thereby prevent rotation of the flange, and of the cable extending therethrough and engaged therewith, with respect to the housing. a sleeve having an internal profile for slidably receiving the cable therethrough, wherein the external profile of the cable is configured to positively engage with the internal profile of the sleeve; and a housing; wherein the sleeve has a flange with a first opening therein and the housing has a second opening therein; wherein the anti-rotational locking apparatus comprises a locking pin , the locking pin being insertable in the openings; and the assembly is characterized in that the first opening is arranged for slidable alignment with the second opening from an unaligned position such that when the openings are aligned, the locking pin is insertable in the openings to lock the flange to the housing and thereby prevent rotation of the flange, and of the cable extending therethrough and engaged therewith, with respect to the housing.
A device for neurostimulation, comprising at least a number N of electrodes (102.a, 102.b; 800, 801, 802, 803; 1, 2, 3, 4, i), wherein N is equal or larger than 3, wherein the device is configured to deliver via each of the N electrodes a set with a frequency f of therapeutic electric phases of amplitude I 1 , I 2 ,.., I N and a number of N-1 charge balancing electric phases after each therapeutic electric phase, wherein the charge balancing electric phases of the respective electrode each have a polarity that is opposite the polarity of the therapeutic electric phase of the respective electrode, wherein the device is configured to return for each electrode the current of each therapeutic electric phase in the other N-1 electrodes, wherein the device is configured such that the charge balancing electric phases have in sum the same amount of charge than the respective therapeutic electric phase
A system to detect magnetic distortion in a magnetic field for localization of a catheter within a patient, the system comprising: one or more metal distortion fixtures , each of the fixtures including more than one sensor coil positioned at fixed distances and orientations relative to one another, each of the sensor coils configured and arranged to sense the magnetic field aligned with the orientation of the sensor coil and output an electrical signal indicative of the sensed magnetic field; processor circuitry communicatively coupled to the metal distortion fixture, and configured and arranged to receive the electrical signals from each of the sensor coils , calculate a time-dependent magnetic field magnitude value for each of the received signals, and detect magnetic distortion, wherein the more than one sensor coil includes three orthogonally orientated sensor coils , and the magnitude value is indicative of a perceived vector distance between the three sensor coils . one or more metal distortion fixtures , each of the fixtures including more than one sensor coil positioned at fixed distances and orientations relative to one another, each of the sensor coils configured and arranged to sense the magnetic field aligned with the orientation of the sensor coil and output an electrical signal indicative of the sensed magnetic field; processor circuitry communicatively coupled to the metal distortion fixture, and configured and arranged to receive the electrical signals from each of the sensor coils , calculate a time-dependent magnetic field magnitude value for each of the received signals, and detect magnetic distortion, wherein the more than one sensor coil includes three orthogonally orientated sensor coils , and the magnitude value is indicative of a perceived vector distance between the three sensor coils . receive the electrical signals from each of the sensor coils , calculate a time-dependent magnetic field magnitude value for each of the received signals, and detect magnetic distortion, wherein the more than one sensor coil includes three orthogonally orientated sensor coils , and the magnitude value is indicative of a perceived vector distance between the three sensor coils .
A window arrangement for mounting in an opening provided in a wall , the window arrangement comprising: - an annularly closed window frame which encloses and defines a window frame opening and which has - a circumferential projection projecting radially inwardly into the window frame opening and having a first abutment surface , and - a groove which opens radially inwardly, - a glass pane holding frame having a second abutment surface , wherein an edge region of the glass pane holding frame engages the groove and the glass pane holding frame is thereby secured to the window frame in such a manner that the first abutment surface and the second abutment surface are spaced apart from one another in the axial direction and face one another, and - a glass pane which is disposed in the window frame opening and, with a circumferential edge region, between the first abutment surface and the second abutment surface , wherein said window arrangement further comprises a first annularly closed sealing material arrangement and a second sealing material arrangement , wherein the first sealing material arrangement is disposed between the glass pane and the first abutment surface and adheres to the glass pane and to the first abutment surface in a respective circumferential contact area, and the second sealing material arrangement is disposed between the glass pane and the second abutment surface and adheres to the glass pane and to the second abutment surface , characterised in that the first sealing material arrangement and/or the second sealing material arrangement are not compressed in the axial direction. - an annularly closed window frame which encloses and defines a window frame opening and which has - a circumferential projection projecting radially inwardly into the window frame opening and having a first abutment surface , and - a groove which opens radially inwardly, - a circumferential projection projecting radially inwardly into the window frame opening and having a first abutment surface , and - a groove which opens radially inwardly, - a glass pane holding frame having a second abutment surface , wherein an edge region of the glass pane holding frame engages the groove and the glass pane holding frame is thereby secured to the window frame in such a manner that the first abutment surface and the second abutment surface are spaced apart from one another in the axial direction and face one another, and - a glass pane which is disposed in the window frame opening and, with a circumferential edge region, between the first abutment surface and the second abutment surface ,
A processor comprising: a decode stage (406; 440) to decode a first instruction for a SIMD SM3 hash round slice, which has a number of iterations less than a total number of round iterations of a SM3 hash algorithm, the first instruction specifying a round-slice portion of the hashing algorithm, an intermediate hash value input operand, a source data operand set, and a round constant operand set; and one or more execution units (416; 462), responsive to the decoded first instruction, to: perform an SM3 hashing round-slice set of round iterations upon the source data operand set, applying the intermediate hash value input operand and the round constant operand set; and store a result of the first instruction in a SIMD destination register. a decode stage (406; 440) to decode a first instruction for a SIMD SM3 hash round slice, which has a number of iterations less than a total number of round iterations of a SM3 hash algorithm, the first instruction specifying a round-slice portion of the hashing algorithm, an intermediate hash value input operand, a source data operand set, and a round constant operand set; and one or more execution units (416; 462), responsive to the decoded first instruction, to: perform an SM3 hashing round-slice set of round iterations upon the source data operand set, applying the intermediate hash value input operand and the round constant operand set; and store a result of the first instruction in a SIMD destination register. perform an SM3 hashing round-slice set of round iterations upon the source data operand set, applying the intermediate hash value input operand and the round constant operand set; and store a result of the first instruction in a SIMD destination register.
A metallic ink composition for use in digital offset printing, comprising: metallic effect pigment particles, wherein an average equivalent sphere diameter of at least about 90% of the metallic effect pigment particles ranges from 35 to 150 μm; at least one dispersant; at least one curable oligomer; and at least one photo initiator, wherein the metallic ink composition has a viscosity ranging from 150,000 to 1,000,000 millipascal seconds (mPa.s) at 0.1 rad/s at 25 °C. metallic effect pigment particles, wherein an average equivalent sphere diameter of at least about 90% of the metallic effect pigment particles ranges from 35 to 150 μm; at least one dispersant; at least one curable oligomer; and at least one photo initiator, wherein the metallic ink composition has a viscosity ranging from 150,000 to 1,000,000 millipascal seconds (mPa.s) at 0.1 rad/s at 25 °C.
A method of adjusting the transmission timing of a wireless communication device (1600; 1810) operating in a wireless communication network comprising first and second base stations , the method comprising: determining , in the first base station, a first allowable timing adjustment range corresponding to a first uplink, UL, connection between the wireless communication device and the first base station, wherein the first UL connection is associated with a first downlink, DL, connection between the wireless communication device and the first base station; determining (1320; 1520), in the first base station or in second base station, a second allowable timing adjustment range corresponding to a supplementary uplink, SUL, connection between the wireless communication device and the second base station, wherein the SUL connection is not associated with a DL connection between the wireless communication device and the second base station; determining , in the first base station or in second base station, if a single timing advance, TA, value can be used to adjust the wireless communication device's transmission timing to satisfy both the first allowable timing adjustment range and the second allowable timing adjustment range; and performing a corrective action , in the first base station or in second base station, if it is determined that said single TA value cannot be used. determining , in the first base station, a first allowable timing adjustment range corresponding to a first uplink, UL, connection between the wireless communication device and the first base station, wherein the first UL connection is associated with a first downlink, DL, connection between the wireless communication device and the first base station; determining (1320; 1520), in the first base station or in second base station, a second allowable timing adjustment range corresponding to a supplementary uplink, SUL, connection between the wireless communication device and the second base station, wherein the SUL connection is not associated with a DL connection between the wireless communication device and the second base station; determining , in the first base station or in second base station, if a single timing advance, TA, value can be used to adjust the wireless communication device's transmission timing to satisfy both the first allowable timing adjustment range and the second allowable timing adjustment range; and performing a corrective action , in the first base station or in second base station, if it is determined that said single TA value cannot be used.