mhurhangee/patent-ind-claim-en huggingface dataset:
An object conveying system comprising; a guide plate having at least two channels for conveying an object (O) between a first end and a second end of the corresponding channels , wherein the at least two channels comprise a first aperture provided at a first longitudinal position thereof (P1), an object measurement unit for conducting an optical measurement associated with a property of the object via the first aperture when the object passes the first aperture towards the second end , at least one ejector unit arranged to eject the object conveyed on the corresponding channel when reaching a second longitudinal position (P2, P2') on the guide plate located downstream of the first aperture based on the measured property of the object and a timing signal associated with a conveying velocity of the object being conveyed along the channel , characterized by wherein the at least two channels comprise a longitudinally extending base and a pair of sidewalls arranged along either of the base for limiting the movement of the object (O) in a lateral direction when being conveyed longitudinally along the base , and wherein an additional aperture is arranged at the second position (P2, P2') for receiving a fluid jet stream. a guide plate having at least two channels for conveying an object (O) between a first end and a second end of the corresponding channels , wherein the at least two channels comprise a first aperture provided at a first longitudinal position thereof (P1), an object measurement unit for conducting an optical measurement associated with a property of the object via the first aperture when the object passes the first aperture towards the second end , at least one ejector unit arranged to eject the object conveyed on the corresponding channel when reaching a second longitudinal position (P2, P2') on the guide plate located downstream of the first aperture based on the measured property of the object and a timing signal associated with a conveying velocity of the object being conveyed along the channel , characterized by wherein the at least two channels comprise a longitudinally extending base and a pair of sidewalls arranged along either of the base for limiting the movement of the object (O) in a lateral direction when being conveyed longitudinally along the base , and wherein an additional aperture is arranged at the second position (P2, P2') for receiving a fluid jet stream.
An accessory device detachably mountable to an imaging apparatus , having an accessory communication unit that provides, between itself and the imaging apparatus , channels including an accessory data communication channel used for transmission of data from the accessory device to the imaging apparatus , an imaging apparatus data communication channel used for data transmission from the imaging apparatus to the accessory device , and a notification channel used for notification between the imaging apparatus and the accessory device , and an accessory control unit that performs control of the accessory communication unit , wherein the accessory device is capable of switching between first settings corresponding to a clock-synchronized communication method that is synchronized with clock signals, and second settings corresponding to an asynchronous communication method, wherein, after the accessory control unit receives, via the imaging apparatus data communication channel, an instruction to switch from the first settings to the second settings from the imaging apparatus in the first settings, the accessory control unit transmits a communication standby request signal to the imaging apparatus via the notification channel, the communication standby request signal being a signal for preventing data communication from the imaging apparatus to the accessory device , and wherein the accessory control unit ends transmission of the communication standby request signal to the imaging apparatus after switching from the first settings to the second settings in the accessory device is complete. wherein the accessory device is capable of switching between first settings corresponding to a clock-synchronized communication method that is synchronized with clock signals, and second settings corresponding to an asynchronous communication method, wherein, after the accessory control unit receives, via the imaging apparatus data communication channel, an instruction to switch from the first settings to the second settings from the imaging apparatus in the first settings, the accessory control unit transmits a communication standby request signal to the imaging apparatus via the notification channel, the communication standby request signal being a signal for preventing data communication from the imaging apparatus to the accessory device , and wherein the accessory control unit ends transmission of the communication standby request signal to the imaging apparatus after switching from the first settings to the second settings in the accessory device is complete.
A compound, having a formula 1 or a salt thereof, wherein: ring A is heteroaryl; R 1 is H or C 1-6 alkyl; R 2 is H, aliphatic, heteroaliphatic, or heterocyclyl; each Z 1 , Z 2 , Z 3 , and Z 4 , independently is N or CR 3 , wherein at least one of Z 1 , Z Z , Z 3 , and Z 4 is N; each R 3 independently is H, aliphatic, or heteroaliphatic; and R 4 is halogen, heteroaryl, heterocycloaliphatic, aryl, -NH-heteroaryl, or -O-heteroaryl. ring A is heteroaryl; R 1 is H or C 1-6 alkyl; R 2 is H, aliphatic, heteroaliphatic, or heterocyclyl; each Z 1 , Z 2 , Z 3 , and Z 4 , independently is N or CR 3 , wherein at least one of Z 1 , Z Z , Z 3 , and Z 4 is N; each R 3 independently is H, aliphatic, or heteroaliphatic; and R 4 is halogen, heteroaryl, heterocycloaliphatic, aryl, -NH-heteroaryl, or -O-heteroaryl.
A separator for a secondary battery, comprising: a separator body having a porous structure comprising a polyolefin, wherein the separator body is configured to be in a form having a difference in porosity along a thickness direction, wherein the separator has a difference in porosity between a first surface side and a second surface side of the separator body. a separator body having a porous structure comprising a polyolefin, wherein the separator body is configured to be in a form having a difference in porosity along a thickness direction, wherein the separator has a difference in porosity between a first surface side and a second surface side of the separator body.
A polysubstituted pyridine compound, or a hydrate, a solvate or a pharmaceutically acceptable salt thereof, wherein the polysubstituted pyridine compound is selected from a group consisting of the following compounds: and
A histologic tissue sample support device for orienting and retaining tissue samples during processing, embedding and sectioning in a microtome, comprising: a tissue cassette, the tissue cassette including a perforated bottom wall and at least one perforated side wall for defining a tissue sample receiving space, the cassette formed of material which is sectioned in a microtome and is resistant to degradation from solvents and chemicals used to fix, process and stain tissue, the tissue cassette including an elongate channel for receiving at least one tissue sample , the channel including resilient fingers on opposite sides along the length of the channel for resiliently engaging and holding the tissue sample during processing and embedding, wherein the resilient fingers face each other; and tissue sample biasing structure configured to extend into the channel to retain the tissue sample or samples against the bottom wall during processing and embedding, the tissue sample biasing structure further being capable of successful sectioning in the microtome.
A fibrous construct comprising: a) an ester substrate; b) a first web comprising a plurality of first water soluble fibers and a perhydrolase, wherein the perhydrolase is encapsulated in the first water soluble fibers and is present in an amount from 0.1 to 40 wt% based on the total weight of the first web; c) a second web comprising a plurality of second water soluble fibers and an oxidizing agent, wherein the oxidizing agent is encapsulated in the second water soluble fibers; and wherein the first water soluble fibers and the second water soluble fibers are solution spun water soluble fibers. a) an ester substrate; b) a first web comprising a plurality of first water soluble fibers and a perhydrolase, wherein the perhydrolase is encapsulated in the first water soluble fibers and is present in an amount from 0.1 to 40 wt% based on the total weight of the first web; c) a second web comprising a plurality of second water soluble fibers and an oxidizing agent, wherein the oxidizing agent is encapsulated in the second water soluble fibers; and
Use of a metal hydroxide or acetate, or of magnesium, aluminium or zinc sulphate as an additive in a gypsum matrix for reducing shrinkage in a calcium sulphate-based wallboard during heat exposure to temperatures greater than 400°C.
A Cu-based sintered body having a composition comprising, by mass%, 7% to 35% of Ni, 1% to 10% of Sn, 0.9% to 3% of P, and 0.5% to 5% of C, with a remainder of Cu and inevitable impurities, wherein the Cu-based sintered body includes: alloy grains that contain Sn and C and further contain a Cu-Ni-based alloy as a main component; grain boundary phases that contain Ni and P as main components and are dispersedly distributed in grain boundaries of the alloy grains ; and free graphite , the Cu-based sintered body has a structure in which pores are dispersedly formed in the grain boundaries of the alloy grains , the free graphite intervenes at the grain boundaries of the alloy grains in the pores , an amount of C in the metal matrix consisting of the alloy grains and the grain boundary phases is, by mass%, 0.02% to 0.20% and an amount of the free graphite is, by mass%, 0.3% to 4.98%. wherein the Cu-based sintered body includes: alloy grains that contain Sn and C and further contain a Cu-Ni-based alloy as a main component; grain boundary phases that contain Ni and P as main components and are dispersedly distributed in grain boundaries of the alloy grains ; and free graphite , the Cu-based sintered body has a structure in which pores are dispersedly formed in the grain boundaries of the alloy grains , the free graphite intervenes at the grain boundaries of the alloy grains in the pores , an amount of C in the metal matrix consisting of the alloy grains and the grain boundary phases is, by mass%, 0.02% to 0.20% and an amount of the free graphite is, by mass%, 0.3% to 4.98%.
A filter element , comprising: a ring of filter media having a first axial end and a second axial end; a first end cap construction integrally attached to the first end, the first end cap construction comprising a base portion and an axial seal portion extending axially from the base portion , the axial seal portion including a seal bead configured for axially sealing against an axially facing surface, and wherein the axial seal portion includes a plurality of radially inwardly extending projections , the projections projecting directly from the seal bead and being configured and arranged for axially supporting an inlet tube; and a second end cap construction integrally attached to the second end and comprising a support ring and a resilient portion supported in part by the support ring , the resilient portion including a radial seal projection configured for radially sealing against an interior radially facing surface. a ring of filter media having a first axial end and a second axial end; a first end cap construction integrally attached to the first end, the first end cap construction comprising a base portion and an axial seal portion extending axially from the base portion , the axial seal portion including a seal bead configured for axially sealing against an axially facing surface, and wherein the axial seal portion includes a plurality of radially inwardly extending projections , the projections projecting directly from the seal bead and being configured and arranged for axially supporting an inlet tube; and a second end cap construction integrally attached to the second end and comprising a support ring and a resilient portion supported in part by the support ring , the resilient portion including a radial seal projection configured for radially sealing against an interior radially facing surface.
A Josephson current source system comprising: a flux-shuttle loop comprising a plurality of stages arranged in a series loop, each of the plurality of stages comprising at least one Josephson junction, the flux-shuttle loop being configured, when activated, to sequentially trigger the at least one Josephson junction in each of the plurality of stages about the flux-shuttle loop based onto an inductively-coupled alternating current (AC) clock signal to generate a direct current (DC) output current provided through an output inductor; a set of transformers configured to couple the AC clock signal to the flux-shuttle loop, such that the AC clock signal provides a bias current in the flux-shuttle loop; and a flux injector system configured to activate the flux-shuttle loop based on an injection current, the injection current being inductively induced from a DC injection signal,_and is further configured to automatically deactivate the flux-shuttle loop based on an amplitude of a feedback current increasing to a predetermined deactivation threshold, the feedback current being inductively induced from the DC output current, wherein the feedback current and the injection current have opposite current directions in the flux injector system. a flux-shuttle loop comprising a plurality of stages arranged in a series loop, each of the plurality of stages comprising at least one Josephson junction, the flux-shuttle loop being configured, when activated, to sequentially trigger the at least one Josephson junction in each of the plurality of stages about the flux-shuttle loop based onto an inductively-coupled alternating current (AC) clock signal to generate a direct current (DC) output current provided through an output inductor; a set of transformers configured to couple the AC clock signal to the flux-shuttle loop, such that the AC clock signal provides a bias current in the flux-shuttle loop; and a flux injector system configured to activate the flux-shuttle loop based on an injection current, the injection current being inductively induced from a DC injection signal,_and is further configured to automatically deactivate the flux-shuttle loop based on an amplitude of a feedback current increasing to a predetermined deactivation threshold, the feedback current being inductively induced from the DC output current, wherein the feedback current and the injection current have opposite current directions in the flux injector system.
Method for influencing a lighting scene in front of a vehicle , wherein the method comprises the following steps: reading-in an item of information about a position of at least one identified object and about a class of the identified object; assigning a lighting region , which is related to the position of the object, a lighting intensity, which is related to the class of the object, for the lighting region; and adapting the lighting scene taking into account the lighting region and the associated lighting intensity, characterized in that a lighting period, which is related to the class of the object, is assigned in the assigning step , and the lighting scene is further adapted taking into account the lighting period in the adapting step , and wherein, in response to a deer being identified in front of the vehicle, in particular at the roadside, a point at which the deer has been identified is illuminated for longer than the deer is at the point, and/or, in response to a traffic sign being identified, a point at which a traffic sign has been identified is illuminated for longer, even though the traffic sign is briefly hidden and therefore not even visible. reading-in an item of information about a position of at least one identified object and about a class of the identified object; assigning a lighting region , which is related to the position of the object, a lighting intensity, which is related to the class of the object, for the lighting region; and adapting the lighting scene taking into account the lighting region and the associated lighting intensity, characterized in that a lighting period, which is related to the class of the object, is assigned in the assigning step , and the lighting scene is further adapted taking into account the lighting period in the adapting step , and wherein, in response to a deer being identified in front of the vehicle, in particular at the roadside, a point at which the deer has been identified is illuminated for longer than the deer is at the point, and/or, in response to a traffic sign being identified, a point at which a traffic sign has been identified is illuminated for longer, even though the traffic sign is briefly hidden and therefore not even visible.
Offshore platform with at least three driven piles of a pile foundation, each with an outer wall having an outer diameter and with different sleeves each having an inner wall with an inner diameter which is larger than the outer diameter, on which attachments are arranged on the outside, which are threaded over the driven piles driven into a seabed , wherein at least one spacer is provided between the outer wall of the driven pile and the inner wall of the sleeve , and the attachments and the attachments have at least one cable guide, and the different sleeves are connected to one another by means of a linkage and are at a distance from one another which corresponds to the distance between different driven piles over which they are threaded.
A composition for coating a frozen confection, the composition comprising, expressed in weight % based on the total weight of the coating, 30 to 80 wt% of fat, which comprises a fat blend of hard fat and liquid oil, and 20 to 70 wt% of non-fat solids, wherein, the coating composition comprises, less than 25 wt% of saturated fatty acid, 10-60 wt%, preferably 20-40% of monounsaturated fatty acid and less than 10%, preferably less than 5% of polyunsaturated fatty acid, and wherein, the saturated fatty acid comprises between 12-24C-atoms and the unsaturated fatty acid contains 18C-atoms or more than 18C-atoms, wherein the composition only contains non-interesterified fat and oil and is free of lauric fat, and wherein the fat blend crystalizes in a first and second crystallization step at a temperature of -15°C. less than 25 wt% of saturated fatty acid, 10-60 wt%, preferably 20-40% of monounsaturated fatty acid and less than 10%, preferably less than 5% of polyunsaturated fatty acid, and
A method for reducing the effects of distortions on the baseline of an absorption signal within an absorption spectroscopy system , comprising the steps of: controlling a source of electromagnetic radiation to emit a wavelength modulated beam; detecting the modulated beam or beams after transmission through a test medium ; processing the detected beam or beams to obtain an absorption signal indicative of the absorption effects of one or more measurands in the test medium , wherein the processing includes correlating or convolving the absorption signal with a kernel function that is selective for a predicted signal distortion effect arising from at least one of optical interference or electromagnetic interference, wherein the kernel function is a frequency-selective variable gain function that is adapted to either suppress or enhance a predicted signal distortion effect. controlling a source of electromagnetic radiation to emit a wavelength modulated beam; detecting the modulated beam or beams after transmission through a test medium ; processing the detected beam or beams to obtain an absorption signal indicative of the absorption effects of one or more measurands in the test medium , wherein the processing includes correlating or convolving the absorption signal with a kernel function that is selective for a predicted signal distortion effect arising from at least one of optical interference or electromagnetic interference, wherein the kernel function is a frequency-selective variable gain function that is adapted to either suppress or enhance a predicted signal distortion effect.
A method of wireless communication, the method comprising: performing , by a wireless network node, a successful clear channel assessment, CCA, on a frequency channel in accordance with a listen before talk, LBT, protocol procedure, wherein the wireless network node operates in accordance with a first wireless communication protocol; generating a channel reservation signal, by the wireless network node, wherein the channel reservation signal includes a preamble that has a predetermined pattern, a message having a same short period waveform as the preamble, and a synchronization field, SYNC, disposed between the preamble and the message, and wherein the message is encoded to prevent any and all occurrences therein of at least one of the predetermined pattern or a combination of the predetermined pattern and at least part of the SYNC, and wherein the channel reservation signal has a subcarrier spacing and symbol length in accordance with a numerology of a second wireless communication protocol that uses a numerology that is not the same as that of the first wireless communication protocol; and transmitting , by the wireless network node in response to the successful CCA, the channel reservation signal on the frequency channel. performing , by a wireless network node, a successful clear channel assessment, CCA, on a frequency channel in accordance with a listen before talk, LBT, protocol procedure, wherein the wireless network node operates in accordance with a first wireless communication protocol; generating a channel reservation signal, by the wireless network node, wherein the channel reservation signal includes a preamble that has a predetermined pattern, a message having a same short period waveform as the preamble, and a synchronization field, SYNC, disposed between the preamble and the message, and wherein the message is encoded to prevent any and all occurrences therein of at least one of the predetermined pattern or a combination of the predetermined pattern and at least part of the SYNC, and wherein the channel reservation signal has a subcarrier spacing and symbol length in accordance with a numerology of a second wireless communication protocol that uses a numerology that is not the same as that of the first wireless communication protocol; and transmitting , by the wireless network node in response to the successful CCA, the channel reservation signal on the frequency channel.