mhurhangee/patent-ind-claim-en huggingface dataset:
A method , by a user equipment, UE, , for wireless communication, comprising: receiving a first control message within a first control region of a first transmission time interval, TTI, that has a first duration; receiving a second control message within a second control region of a second TTI that has a second duration that is less than the first duration; receiving , in the first control region or the second control region, a time division duplex, TDD, pattern indicator for the second TTI; and determining a TDD pattern for the second TTI based at least in part on the received TDD pattern indicator by selecting the TDD pattern from among a plurality of predetermined TDD patterns based at least in part on the received TDD pattern indicator, wherein the TDD pattern indicator reconfigures a transmission direction for the second TTI, and wherein selecting the TDD pattern from among a plurality of predetermined TDD patterns comprises: reading a table including a plurality of TDD pattern indicator entries associated with respective TDD patterns; and selecting the TDD pattern for the second TTI that is associated with a TDD pattern indicator entry corresponding to the received TDD pattern indicator. receiving a first control message within a first control region of a first transmission time interval, TTI, that has a first duration; receiving a second control message within a second control region of a second TTI that has a second duration that is less than the first duration; receiving , in the first control region or the second control region, a time division duplex, TDD, pattern indicator for the second TTI; and determining a TDD pattern for the second TTI based at least in part on the received TDD pattern indicator by selecting the TDD pattern from among a plurality of predetermined TDD patterns based at least in part on the received TDD pattern indicator, wherein the TDD pattern indicator reconfigures a transmission direction for the second TTI, and wherein selecting the TDD pattern from among a plurality of predetermined TDD patterns comprises: reading a table including a plurality of TDD pattern indicator entries associated with respective TDD patterns; and selecting the TDD pattern for the second TTI that is associated with a TDD pattern indicator entry corresponding to the received TDD pattern indicator. reading a table including a plurality of TDD pattern indicator entries associated with respective TDD patterns; and selecting the TDD pattern for the second TTI that is associated with a TDD pattern indicator entry corresponding to the received TDD pattern indicator.
A rearview assembly comprising: a mount configured to be operably coupled with a vehicle; a first support having a generally linear body and extending downward from the mount , the first support defining a first axis of rotation; a second support defining a second axis of rotation and extending from a side of the first support in a direction generally orthogonal to the first axis of rotation of the first support ; a brace coupled with the second support and being in abutting contact with a carrier plate ; a spring clip extending around and in abutting contact with the second support , the spring clip including an upper clamp portion that provides a clamping force around the second support that is coupled with the brace ; and first and second connecting members configured to operably couple the brace with the second support , wherein the spring clip is disposed between the first and second connecting members , and wherein a housing is operably coupled with the second support and is rotatable about both the first axis of rotation and the second axis of rotation. a mount configured to be operably coupled with a vehicle; a first support having a generally linear body and extending downward from the mount , the first support defining a first axis of rotation; a second support defining a second axis of rotation and extending from a side of the first support in a direction generally orthogonal to the first axis of rotation of the first support ; a brace coupled with the second support and being in abutting contact with a carrier plate ; a spring clip extending around and in abutting contact with the second support , the spring clip including an upper clamp portion that provides a clamping force around the second support that is coupled with the brace ; and first and second connecting members configured to operably couple the brace with the second support , wherein the spring clip is disposed between the first and second connecting members , and wherein a housing is operably coupled with the second support and is rotatable about both the first axis of rotation and the second axis of rotation.
Building structure portion having a wall , a window frame , and at least one supporting and insulating element , which is arranged laterally from the wall , for supporting and insulating the window frame , wherein the supporting and insulating element comprises: a supporting part having a first leg , which has a first lateral surface , having a second leg , which projects from the first leg on the side opposite the first lateral surface , and having a third leg , which, while being spaced apart from the second leg , projects from the first leg on the side opposite the first lateral surface , wherein the supporting part is formed from a load-bearing material, an insulating part which is arranged at least on the side, which faces away from the first lateral surface , of the first leg of the supporting part and is formed from compacting mineral wool or from a hard foam, wherein the insulating part has two incisions into which the second leg and third leg of the supporting part are inserted, and wherein the insulating part surrounds the second leg and the third leg of the supporting part on three sides in each case, wherein the first leg of the supporting part is screwed to the wall by means of a fastening element , characterized in that the window frame , with interposition of at least one portion of the insulating part , is screwed to the second leg and the third leg of the supporting part of the at least one supporting and insulating element by means of at least one screw element . a supporting part having a first leg , which has a first lateral surface , having a second leg , which projects from the first leg on the side opposite the first lateral surface , and having a third leg , which, while being spaced apart from the second leg , projects from the first leg on the side opposite the first lateral surface , wherein the supporting part is formed from a load-bearing material, an insulating part which is arranged at least on the side, which faces away from the first lateral surface , of the first leg of the supporting part and is formed from compacting mineral wool or from a hard foam, wherein the insulating part has two incisions into which the second leg and third leg of the supporting part are inserted, and wherein the insulating part surrounds the second leg and the third leg of the supporting part on three sides in each case, wherein the first leg of the supporting part is screwed to the wall by means of a fastening element , characterized in that the window frame , with interposition of at least one portion of the insulating part , is screwed to the second leg and the third leg of the supporting part of the at least one supporting and insulating element by means of at least one screw element .
A method for processing a calcified shell of an avian egg containing an embryo therein in the region of the blunt end of the avian egg , particularly for generating a weakening line in the calcified shell in the region of the blunt end , comprising the steps of: determining a position of an air cell which is disposed between an inner membrane and an outer membrane of the avian egg in the region of the blunt end , wherein the determination of the position of the air cell comprises: capturing an image (30; 50-59) of the avian egg using a sensor assembly whose output signal or output data are substantially independent of a color of the calcified shell , wherein the image (30; 50-59) is a thermal image (50-59), and analyzing the image (30; 50-59) for detecting the position of the air cell , wherein analyzing the image (30; 50-59) comprises a segmentation of the image (30; 50-59), wherein the segmentation comprises an edge-oriented segmentation method or a region-oriented segmentation method, wherein a projection of the air cell into an image plane of the sensor assembly is identified based on the fact that it has a lower average temperature; and controlling a processing device for processing the calcified shell in the region of the blunt end depending on the position of the air cell detected by analyzing the image (30; 50-59) so that the calcified shell is processed at a distance from the inner membrane of the avian egg . determining a position of an air cell which is disposed between an inner membrane and an outer membrane of the avian egg in the region of the blunt end , wherein the determination of the position of the air cell comprises: capturing an image (30; 50-59) of the avian egg using a sensor assembly whose output signal or output data are substantially independent of a color of the calcified shell , wherein the image (30; 50-59) is a thermal image (50-59), and analyzing the image (30; 50-59) for detecting the position of the air cell , wherein analyzing the image (30; 50-59) comprises a segmentation of the image (30; 50-59), wherein the segmentation comprises an edge-oriented segmentation method or a region-oriented segmentation method, wherein a projection of the air cell into an image plane of the sensor assembly is identified based on the fact that it has a lower average temperature; and controlling a processing device for processing the calcified shell in the region of the blunt end depending on the position of the air cell detected by analyzing the image (30; 50-59) so that the calcified shell is processed at a distance from the inner membrane of the avian egg .
Device comprising a substrate (41.0, 51) made of a semi-conductor material of one or plural chemical elements supporting a matrix of diodes organised in rows (L) and columns (C), and a peripheral substrate contact arranged on at least one side of the matrix (50 60), the substrate having a first type of doping and the diodes (Di) comprising a second doped zone in the substrate , having a second type of doping opposite the first type, the substrate comprising several other doped zones, and each forming a buried conducting line buried in the substrate, the buried conducting lines are : - made of a semi-conductor material composed of the or the same chemical elements than said semi-conductor material of said substrate; - are flush with a principal surface of the substrate on the side on which the diodes are present (Di), - have no direct electrical connection with the peripheral substrate contact, are positioned between the second doped zones , - extend between two adjacent columns of diodes (Di) and two adjacent rows of diodes (Di), - intersect at an intersection and form a mesh of buried conducting lines , and these buried conducting lines having the first type of doping and a greater doping density than the substrate and a gap greater than the gap of the substrate. - made of a semi-conductor material composed of the or the same chemical elements than said semi-conductor material of said substrate; - are flush with a principal surface of the substrate on the side on which the diodes are present (Di), - have no direct electrical connection with the peripheral substrate contact, are positioned between the second doped zones , - extend between two adjacent columns of diodes (Di) and two adjacent rows of diodes (Di), - intersect at an intersection and form a mesh of buried conducting lines , and these buried conducting lines having the first type of doping and a greater doping density than the substrate and a gap greater than the gap of the substrate.
A washing machine comprising: a first housing in which a first tub is disposed, the first housing having an open top; a first drain pump disposed in the first housing , the first drain pump being configured to drain water from the first tub ; a second tub disposed in a second housing which has an open bottom and wherein the second housing is mounted on an upper portion of the first housing , and characterized in that it further comprises a second drain pump being configured to drain water from the second tub , wherein the second drain pump is mounted in the upper portion of the first housing . a first housing in which a first tub is disposed, the first housing having an open top; a first drain pump disposed in the first housing , the first drain pump being configured to drain water from the first tub ; a second tub disposed in a second housing which has an open bottom and wherein the second housing is mounted on an upper portion of the first housing , and characterized in that it further comprises a second drain pump being configured to drain water from the second tub , wherein the second drain pump is mounted in the upper portion of the first housing .
A container , preferably for loosely stored products, the container comprising a) a container body comprising a peripheral body wall ; b) a cover comprising an outer peripheral cover wall and a cover skirt , wherein the cover skirt is configured to be in contact against an inner surface of the peripheral body wall when the cover is in a closed state; c) a hinge connecting the container body and the cover ; and d) at least one protruding element provided on the outer side of the peripheral body wall of the container and/or on the inner side of the outer peripheral cover wall , characterized in that the at least one protruding element provides a local reduction of a surrounding gap between the peripheral body wall of the container and the outer peripheral cover wall , when the cover is in the closed state, and each protruding element is provided on one among the outer side of the peripheral body wall and the inner side of the outer peripheral cover wall , without facing, without interacting with and without contacting any other protruding element of the other among the outer side of the peripheral body wall and the inner side of the outer peripheral cover wall , when the cover is in the closed state. a) a container body comprising a peripheral body wall ; b) a cover comprising an outer peripheral cover wall and a cover skirt , wherein the cover skirt is configured to be in contact against an inner surface of the peripheral body wall when the cover is in a closed state; c) a hinge connecting the container body and the cover ; and d) at least one protruding element provided on the outer side of the peripheral body wall of the container and/or on the inner side of the outer peripheral cover wall ,
A router for use in commissioning new equipment within a network, the network comprising live equipment, the router having: a first processing element (110 - 114) adapted to manage a first Virtual Private Network, VPN , for live equipment (10-13) which is already operational; a second processing element (110 -114)adapted to manage a second VPN , separate from said first VPN, for new equipment (15-18) to be commissioned; wherein the network is a rail network and the router further comprises Master and Standby lanes each having respective 15 said first and second processing elements; the router further comprising a configuration manager (1101 - 1103) operable to switch the Master lane to the Standby lane and vice-versa; each processing element including a plurality of network interfaces and a configuration client , responsive to the configuration manager, adapted to allow remote configuration of each VPN by being configured with a mapping defining connections of equipment to any of the plurality of network interfaces , and further including routing algorithm logic allowing testing of said mapping; and wherein the configuration manager (1101 - 1103) is arranged to receive said mapping, validate the same using the routing algorithm logic of the processing elements and once the mapping is validated, to effect said lane switch thereby bringing the new equipment (15-18) into operation . a first processing element (110 - 114) adapted to manage a first Virtual Private Network, VPN , for live equipment (10-13) which is already operational; a second processing element (110 -114)adapted to manage a second VPN , separate from said first VPN, for new equipment (15-18) to be commissioned; wherein the network is a rail network and the router further comprises Master and Standby lanes each having respective 15 said first and second processing elements; the router further comprising a configuration manager (1101 - 1103) operable to switch the Master lane to the Standby lane and vice-versa; each processing element including a plurality of network interfaces and a configuration client , responsive to the configuration manager, adapted to allow remote configuration of each VPN by being configured with a mapping defining connections of equipment to any of the plurality of network interfaces , and further including routing algorithm logic allowing testing of said mapping; and wherein the configuration manager (1101 - 1103) is arranged to receive said mapping, validate the same using the routing algorithm logic of the processing elements and once the mapping is validated, to effect said lane switch thereby bringing the new equipment (15-18) into operation .
A printing device, comprising: a main body including a printing unit for printing on a material and a winding unit for winding a printed material; and a moving device provided in the main body, characterised in that the moving device is configured to allow the winding unit to reciprocate between an outlet space of the printing unit and an inlet space thereof. a main body including a printing unit for printing on a material and a winding unit for winding a printed material; and a moving device provided in the main body, characterised in that the moving device is configured to allow the winding unit to reciprocate between an outlet space of the printing unit and an inlet space thereof.
A start-stop tissue paper rewinding machine for unwinding primary reels (BP; BP2) of a tissue paper web material (N; N2) and rewinding said web material in secondary reels (BS) through successive winding cycles spaced by stops for replacement of the secondary reels (BS) with new winding cores; wherein the machine comprises: a winding station with winding members operated by at least one winding motor (8.1, 8.2); at least two unwinders (31.1, 31.2), each unwinder comprising at least a respective unwinding member (35.1, 35.2) operated by at least one respective unwinding motor (38.1, 38.2); for each unwinder, at least one respective guide roller (43.1, 43.2) along a feed path (P) of the web material (N, N2) unwound from the respective unwinder; at least one respective load sensor (42.1, 42.2) associated with each guide roller (43.1, 43.2), the sensor being adapted to detect a parameter proportional to the tension of the respective web material (N; N2) guided around the guide roller (43.1, 43.2); and a control unit , adapted to modulate a difference in speed between the winding members and the unwinding member (35.1, 35.2) of each unwinder as a function of a signal from the respective load sensor (42.1, 42.2). a winding station with winding members operated by at least one winding motor (8.1, 8.2); at least two unwinders (31.1, 31.2), each unwinder comprising at least a respective unwinding member (35.1, 35.2) operated by at least one respective unwinding motor (38.1, 38.2); for each unwinder, at least one respective guide roller (43.1, 43.2) along a feed path (P) of the web material (N, N2) unwound from the respective unwinder; at least one respective load sensor (42.1, 42.2) associated with each guide roller (43.1, 43.2), the sensor being adapted to detect a parameter proportional to the tension of the respective web material (N; N2) guided around the guide roller (43.1, 43.2); and a control unit , adapted to modulate a difference in speed between the winding members and the unwinding member (35.1, 35.2) of each unwinder as a function of a signal from the respective load sensor (42.1, 42.2).
R-TM-A-M-type rare earth-containing alloy flakes of a composition consisting of: not less than 27.0 mass% and not more than 40.0 mass% R representing at least two elements selected from the group consisting of Y, Sc, and lanthanoid elements of atomic numbers 57 to 71, with Nd and at least one of Dy and Tb being essential; not less than 0.7 mass% and not more than 2.0 mass% A representing B, or B and C; not less than 0 mass% and not more than 3.0 mass% M representing at least one element selected from the group consisting of Al, Si and Cu; and a balance TM representing Fe, or Fe and Co; wherein a content of Nd in the alloy flakes is not less than 9.0 mass% and not more than 39.9 mass%; wherein a content of Dy and Tb in R is not less than 0.1 mass% and not more than 10.0 mass%, wherein said alloy flakes have a structure having a Nd 2 Fe 14 B main phase and a boundary phase, wherein a Fe content in said boundary phase is not more than 5 mass%, and wherein a ratio of a total content (b) of Dy and Tb in said boundary phase to a total content (a) of Dy and Tb in said main phase is not lower than 10.0; wherein the Fe content in said boundary phase and the ratio of a total content (b) of Dy and Tb in said boundary phase to a total content (a) of Dy and Tb in said main phase are determined by Wavelength Dispersive X-ray Spectroscopy and ZAF determination. not less than 27.0 mass% and not more than 40.0 mass% R representing at least two elements selected from the group consisting of Y, Sc, and lanthanoid elements of atomic numbers 57 to 71, with Nd and at least one of Dy and Tb being essential; not less than 0.7 mass% and not more than 2.0 mass% A representing B, or B and C; not less than 0 mass% and not more than 3.0 mass% M representing at least one element selected from the group consisting of Al, Si and Cu; and a balance TM representing Fe, or Fe and Co; wherein a content of Nd in the alloy flakes is not less than 9.0 mass% and not more than 39.9 mass%; wherein a content of Dy and Tb in R is not less than 0.1 mass% and not more than 10.0 mass%, wherein said alloy flakes have a structure having a Nd 2 Fe 14 B main phase and a boundary phase, wherein a Fe content in said boundary phase is not more than 5 mass%, and wherein a ratio of a total content (b) of Dy and Tb in said boundary phase to a total content (a) of Dy and Tb in said main phase is not lower than 10.0; wherein the Fe content in said boundary phase and the ratio of a total content (b) of Dy and Tb in said boundary phase to a total content (a) of Dy and Tb in said main phase are determined by Wavelength Dispersive X-ray Spectroscopy and ZAF determination.
A method of determining the risk of developing breast cancer in a subject or determining whether a subject suffers from breast cancer, the method comprising detecting the expression level of at least 5 miRNA listed in Table 8 in a bodily fluid sample obtained from the subject and determining whether the miRNA are upregulated or downregulated as compared to a control, wherein downregulation of hsa-miR-409-3p (SEQ ID NO: 178) indicates that the subject has breast cancer or is at a risk of developing breast cancer.