mhurhangee/ep-ind-claims huggingface dataset:
A window-cleaning robot comprising: a main body; a cleaning pad mounting member, upon which a cleaning pad may be mounted; a linkage having a first end, at which the linkage is mounted on said main body, and a second end, which is operatively connected to said cleaning pad mounting member; a motor, configured to cause vibrational movements of said linkage, which as a result contacts said cleaning pad mounting member, causing vibrational movements thereof and of said cleaning pad; wherein the robot has a window-engaging side, which is configured to engage with a window surface to enable cleaning thereof by the robot, said cleaning pad being disposed on the window-engaging side of the robot; wherein the linkage is moveably mounted on the main body so as to permit movement of the cleaning pad mounting member relative to the main body within a plane parallel to said window-engaging side; characterized in that the window-cleaning robot further comprises a cleaning pad module, which comprises said cleaning pad mounting member and a housing, the cleaning pad mounting member being operatively connected to the housing; and wherein the cleaning pad module comprises one or more reservoirs (561A, 561B) for storing a cleaning fluid, the one or more reservoirs (561A, 561B) being fluidically connected to said cleaning pad so as to wet the cleaning pad with said cleaning fluid, the one or more reservoir(s) (561A, 561B) being formed or comprised by the housing. a main body; a cleaning pad mounting member, upon which a cleaning pad may be mounted; a linkage having a first end, at which the linkage is mounted on said main body, and a second end, which is operatively connected to said cleaning pad mounting member; a motor, configured to cause vibrational movements of said linkage, which as a result contacts said cleaning pad mounting member, causing vibrational movements thereof and of said cleaning pad; wherein the robot has a window-engaging side, which is configured to engage with a window surface to enable cleaning thereof by the robot, said cleaning pad being disposed on the window-engaging side of the robot; wherein the linkage is moveably mounted on the main body so as to permit movement of the cleaning pad mounting member relative to the main body within a plane parallel to said window-engaging side; characterized in that the window-cleaning robot further comprises a cleaning pad module, which comprises said cleaning pad mounting member and a housing, the cleaning pad mounting member being operatively connected to the housing; and wherein the cleaning pad module comprises one or more reservoirs (561A, 561B) for storing a cleaning fluid, the one or more reservoirs (561A, 561B) being fluidically connected to said cleaning pad so as to wet the cleaning pad with said cleaning fluid, the one or more reservoir(s) (561A, 561B) being formed or comprised by the housing.
A device for delivering a supply of gases to a user comprising or including: a patient interface, having a hollow body, the interface being adapted to be in fluid communication with said supply of gases, headgear adapted to attach to or around the head of said user, where said patient interface is adapted to substantially seal with respect to at least a portion of a face and/or respiratory system of said user in at least a correct orientation and position on said user and where there is a connection (120, 200) between said headgear and said patient interface, when said patient interface is engaged with a user, characterised in that: the connection comprises an elongate sliding strap operable to be snapped into place into at least one clip but is allowed to slide with respect thereto, so that the headgear can move laterally, independently of the hollow body, wherein the sliding strap includes a mid section operable to reciprocate with the at least one clip; and a loop (206, 208) at either end of the strap, attachable to the headgear. a patient interface, having a hollow body, the interface being adapted to be in fluid communication with said supply of gases, headgear adapted to attach to or around the head of said user, where said patient interface is adapted to substantially seal with respect to at least a portion of a face and/or respiratory system of said user in at least a correct orientation and position on said user and where there is a connection (120, 200) between said headgear and said patient interface, when said patient interface is engaged with a user, the connection comprises an elongate sliding strap operable to be snapped into place into at least one clip but is allowed to slide with respect thereto, so that the headgear can move laterally, independently of the hollow body, wherein the sliding strap includes a mid section operable to reciprocate with the at least one clip; and a loop (206, 208) at either end of the strap, attachable to the headgear.
A block copolymer composition comprising: a. 0 to 5 wt.% of a tetra-branched block copolymer having a number average molecular weight of 40,000 to 120,000 represented by the general formula (A-B)4X; b. 0 to 36 wt.% of a tri-branched block copolymer having a number average molecular weight of from 30,000 to 90,000 represented by the general formula (A-B)3X; c. 60 to 95 wt.% of a di-branched block copolymer having a number average molecular weight of from 20,000 to 60,000 represented by the general formula (A-B)2X; and d. 4 to 8 wt.% of a linear diblock copolymer having a number average molecular weight of from 10,000 to 30,000 represented by the general formula A-B; where: i. A represents a polymer block of a mono alkenyl arene, wherein the A block has a number average molecular weight ranging from 4,000 to 7,500 g/mol; ii. B represents a polymer block of a conjugated diene, wherein the B block has a number average molecular weight ranging from 7,000 to 20,000 g/mol; and iii. X represents the residue of an alkoxy silane coupling agent, wherein the number average molecular weight is measured according to the description. a. 0 to 5 wt.% of a tetra-branched block copolymer having a number average molecular weight of 40,000 to 120,000 represented by the general formula (A-B)4X; b. 0 to 36 wt.% of a tri-branched block copolymer having a number average molecular weight of from 30,000 to 90,000 represented by the general formula (A-B)3X; c. 60 to 95 wt.% of a di-branched block copolymer having a number average molecular weight of from 20,000 to 60,000 represented by the general formula (A-B)2X; and d. 4 to 8 wt.% of a linear diblock copolymer having a number average molecular weight of from 10,000 to 30,000 represented by the general formula A-B; where: i. A represents a polymer block of a mono alkenyl arene, wherein the A block has a number average molecular weight ranging from 4,000 to 7,500 g/mol; ii. B represents a polymer block of a conjugated diene, wherein the B block has a number average molecular weight ranging from 7,000 to 20,000 g/mol; and iii. X represents the residue of an alkoxy silane coupling agent, wherein the number average molecular weight is measured according to the description. i. A represents a polymer block of a mono alkenyl arene, wherein the A block has a number average molecular weight ranging from 4,000 to 7,500 g/mol; ii. B represents a polymer block of a conjugated diene, wherein the B block has a number average molecular weight ranging from 7,000 to 20,000 g/mol; and iii. X represents the residue of an alkoxy silane coupling agent,
A substrate having thereon a marking or layer comprising a cured chiral liquid crystal precursor composition, wherein the chiral liquid crystal precursor composition is salt-free and comprises (i) one or more nematic compounds A and (ii) one or more chiral dopant compounds B which are capable of giving rise to a cholesteric state of the chiral liquid crystal precursor composition and are of formula: wherein: R 1, R 2, R 3, and R 4 each independently denote C 1 -C 6 alkyl and C 1 -C 6 alkoxy; A 1 and A 2 each independently denote a group of formula -[(CH 2) y -O] z -C -CH=CH 2; m, n, o, and p each independently denote 0, 1, or 2; y denotes 0, 1, 2, 3, 4, 5, or 6; and z equals 0 if y equals 0 and z equals 1 if y equals 1 to 6; and wherein a modifying resin with ether functionalities comprising at least one unit of formula: -[CH(R 1)-(CH(R 2)) n -O] m - wherein n is 0 or an integer of from 1 to 4, m is an integer of from 2 to 20, and R 1 and R 2 are independently of each other hydrogen or C 1-4 alkyl is disposed between the substrate and the marking or layer and in contact with the marking or layer in one or more areas thereof, the modifying resin changing a position of a selective reflection band exhibited by the cured chiral liquid crystal precursor composition on the substrate in the one or more areas. R 1, R 2, R 3, and R 4 each independently denote C 1 -C 6 alkyl and C 1 -C 6 alkoxy; A 1 and A 2 each independently denote a group of formula -[(CH 2) y -O] z -C -CH=CH 2; m, n, o, and p each independently denote 0, 1, or 2; y denotes 0, 1, 2, 3, 4, 5, or 6; and z equals 0 if y equals 0 and z equals 1 if y equals 1 to 6; wherein n is 0 or an integer of from 1 to 4, m is an integer of from 2 to 20, and R 1 and R 2 are independently of each other hydrogen or C 1-4 alkyl is disposed between the substrate and the marking or layer and in contact with the marking or layer in one or more areas thereof, the modifying resin changing a position of a selective reflection band exhibited by the cured chiral liquid crystal precursor composition on the substrate in the one or more areas.
Method for production of nanocrystalline Al 2 O 3 characterized in that seeds are added to aluminum chlorohydrate, at first the suspension of aluminum chlorohydrate plus crystallization seeds is dried and subsequently the dried product is calcinated, so thermal treatment takes place within 0.5 to 30 minutes and the thus obtained agglomerates are grinded, or that the aqueous suspension of aluminum chlorohydrate and seeds is directly injected into the calcination apparatus without previous removal of water.
A method of forming a micro-wire having a diameter of 175 μm or less, comprising: - heating metal feedstock to a liquid state within a glass tube, wherein said metal feedstock includes an iron based glass forming alloy consisting of iron present in the range of 43 atomic percent to 68 atomic percent, boron present in the range of 12 atomic percent to 19 atomic percent, optionally carbon present in the range of 1 atomic percent to 5 atomic percent, optionally silicon present in the range of 0.4 atomic percent to 4.0 atomic percent, nickel present in the range of 16 atomic percent to 17 atomic percent and cobalt present in the range of 2 atomic percent to 21 atomic percent; - providing negative pressure to the interior of said glass tube; - drawing down said glass tube containing said metal feedstock; and - cooling said metal feedstock in said glass tube at a cooling rate in the range of 10 4 to 10 6 K/s. - heating metal feedstock to a liquid state within a glass tube, wherein said metal feedstock includes an iron based glass forming alloy consisting of iron present in the range of 43 atomic percent to 68 atomic percent, boron present in the range of 12 atomic percent to 19 atomic percent, optionally carbon present in the range of 1 atomic percent to 5 atomic percent, optionally silicon present in the range of 0.4 atomic percent to 4.0 atomic percent, nickel present in the range of 16 atomic percent to 17 atomic percent and cobalt present in the range of 2 atomic percent to 21 atomic percent; - providing negative pressure to the interior of said glass tube; - drawing down said glass tube containing said metal feedstock; and - cooling said metal feedstock in said glass tube at a cooling rate in the range of 10 4 to 10 6 K/s.
A battery pack comprising: a box main body housing a battery therein, the box main body having a box shape with an upper side opening, the box main body having a first seal flange formed along an outer peripheral portion of the box main body; and a lid covering the upper side opening of the box main body, the lid having a second seal flange formed along an outer peripheral portion of the lid, the first and second seal flanges (31, 15) being in contact with each other and sealing the battery pack, characterized in that the first and second seal flanges (31, 15) are formed to have curved surfaces curved with a predetermined curvature, so that the second seal flange is highest at a central portion and is lowest at both left and right edge portions at the same level. a box main body housing a battery therein, the box main body having a box shape with an upper side opening, the box main body having a first seal flange formed along an outer peripheral portion of the box main body; and a lid covering the upper side opening of the box main body, the lid having a second seal flange formed along an outer peripheral portion of the lid, the first and second seal flanges (31, 15) being in contact with each other and sealing the battery pack, characterized in that the first and second seal flanges (31, 15) are formed to have curved surfaces curved with a predetermined curvature, so that the second seal flange is highest at a central portion and is lowest at both left and right edge portions at the same level.
An agricultural sample grinding system, said system comprising: a grinder unit for grinding and uniformly mixing an agricultural sample, the grinder unit including a grinding chamber, a grinding blade disposed within the grinding chamber, an outflow port extending from the grinding chamber bottom half through a sidewall of the grinder unit bottom half, and a routing channel formed in the bottom portion of the surface of the grinding chamber bottom half; and a collection chamber connected to a transfer spout extending from a side of the grinder unit, the collection chamber for collecting the ground and uniformly mixed agricultural sample dispensed from the grinder unit via the transfer spout, the transfer spout coupled to the grinder unit bottom half and aligned with the outflow port; wherein the grinding blade is configured to grind and uniformly mix the agricultural sample within the grinding chamber and wherein rotation of the grinding blade causes spinning movement of the ground and uniformly mixed agricultural sample around the grinding chamber and through the routing channel; and wherein the routing channel provides a guide for the ground and uniformly mixed agricultural sample spinning within the grinding chamber, due to the rotation of the grinding blade, to be dispensed from the grinding chamber through the outflow port. a grinder unit for grinding and uniformly mixing an agricultural sample, the grinder unit including a grinding chamber, a grinding blade disposed within the grinding chamber, an outflow port extending from the grinding chamber bottom half through a sidewall of the grinder unit bottom half, and a routing channel formed in the bottom portion of the surface of the grinding chamber bottom half; and a collection chamber connected to a transfer spout extending from a side of the grinder unit, the collection chamber for collecting the ground and uniformly mixed agricultural sample dispensed from the grinder unit via the transfer spout, the transfer spout coupled to the grinder unit bottom half and aligned with the outflow port; wherein the grinding blade is configured to grind and uniformly mix the agricultural sample within the grinding chamber and wherein rotation of the grinding blade causes spinning movement of the ground and uniformly mixed agricultural sample around the grinding chamber and through the routing channel; and wherein the routing channel provides a guide for the ground and uniformly mixed agricultural sample spinning within the grinding chamber, due to the rotation of the grinding blade, to be dispensed from the grinding chamber through the outflow port.
A method, in a wireless telecommunication network, comprising: receiving data from a low cost/complexity, LC, user equipment, UE, (105; 201; 301; 401) or a network node (100; 203; 303; 403), the data representing an indication containing LC-UE coverage enhanced mode and/or a repetition level for idle mode paging for the LC-UE (105; 201; 301; 401); and transmitting a message to the LC UE (105; 201; 301; 401) representing an instruction prohibiting the LC-UE (105; 201; 301; 401) from reporting a repetition level and providing a configured repetition level for the LC-UE (105; 201; 301; 401). receiving data from a low cost/complexity, LC, user equipment, UE, (105; 201; 301; 401) or a network node (100; 203; 303; 403), the data representing an indication containing LC-UE coverage enhanced mode and/or a repetition level for idle mode paging for the LC-UE (105; 201; 301; 401); and transmitting a message to the LC UE (105; 201; 301; 401) representing an instruction prohibiting the LC-UE (105; 201; 301; 401) from reporting a repetition level and providing a configured repetition level for the LC-UE (105; 201; 301; 401).
A method of processing data for transmission in a multiple-input multiple-output (MIMO) communication system, comprising: receiving at least one data symbol stream, each of the at least one data symbol stream being scaled with a respective weight corresponding to an amount of transmit power allocated to the data symbol stream, wherein a total amount of transmit power allocated to the at least one data symbol stream is less than or equal to total transmit power available for a transmitter; and processing the at least one data symbol stream with a transmit basis matrix to obtain a plurality of transmit symbol streams for transmission via a plurality of antennas, wherein the transmit basis matrix is defined such that each of the at least one data symbol stream is transmitted via the plurality of antennas and each of the plurality of transmit symbol streams is transmitted via a corresponding antenna, wherein |M k,i | 2 = 1/N T, for i ∈ K and k ∈ K, where M is said transmit basis matrix, M k,i is the element in the k -th row and the i -th column of the transmit basis matrix M, and K is the set of all transmit antennas (i.e., K = {1, 2,..., N T}). receiving at least one data symbol stream, each of the at least one data symbol stream being scaled with a respective weight corresponding to an amount of transmit power allocated to the data symbol stream, wherein a total amount of transmit power allocated to the at least one data symbol stream is less than or equal to total transmit power available for a transmitter; and processing the at least one data symbol stream with a transmit basis matrix to obtain a plurality of transmit symbol streams for transmission via a plurality of antennas, wherein the transmit basis matrix is defined such that each of the at least one data symbol stream is transmitted via the plurality of antennas and each of the plurality of transmit symbol streams is transmitted via a corresponding antenna, wherein |M k,i | 2 = 1/N T, for i ∈ K and k ∈ K, where M is said transmit basis matrix, M k,i is the element in the k -th row and the i -th column of the transmit basis matrix M, and K is the set of all transmit antennas (i.e., K = {1, 2,..., N T}).
An apparatus for assessing the functional dysmetria of lower limbs, the apparatus comprising: - a supporting structure with two moveable platforms, which are mutually independent and can yield vertically under load, at least one block made of elastically yielding material being arranged below each one of said platforms, - complementary means, which cooperate with said platforms, for the vertical arrangement, with respect to the foot-resting central line, of the sacrolumbar line of the patient, - means for measuring dysmetria, - means for measuring the differences in subcalcaneal load, - means for locking and releasing said platforms, - means for extracting the blocks from said supporting structure, characterized in that said extraction means comprise a slider which supports said blocks and can be extracted from said supporting structure by sliding in a direction that is substantially parallel to the ground. - a supporting structure with two moveable platforms, which are mutually independent and can yield vertically under load, at least one block made of elastically yielding material being arranged below each one of said platforms, - complementary means, which cooperate with said platforms, for the vertical arrangement, with respect to the foot-resting central line, of the sacrolumbar line of the patient, - means for measuring dysmetria, - means for measuring the differences in subcalcaneal load, - means for locking and releasing said platforms, - means for extracting the blocks from said supporting structure,
A scrap determination system comprising: an acquisition section configured to acquire a camera image including scrap; a first scrap determination model generated using teaching data including first learning images, and configured to determine, based on the camera image, each grade of the scrap included in the camera image and a ratio of the grade; a second scrap determination model generated using teaching data including second learning images different from the first learning images, and configured to determine, based on the camera image, each grade of the scrap included in the camera image and a ratio of the grade; a selection model configured to determine which of the first scrap determination model and the second scrap determination model is to be used, based on the camera image; and an output section configured to output information of each grade of the scrap and a ratio of the grade determined based on the camera image using a model selected by the selection model out of the first scrap determination model and the second scrap determination model, wherein the first learning images are each an image of single-grade metal scrap, and when determining each grade of the scrap included in the camera image and a ratio of the grade using the first scrap determination model, the ratio of the grade is determined based on an area ratio of scrap of the grade in the camera image; the second learning images being each an image of mixed-grade metal scrap; and the ratio of each grade being a weight ratio to the total weight of scrap included in the camera image. an acquisition section configured to acquire a camera image including scrap; a first scrap determination model generated using teaching data including first learning images, and configured to determine, based on the camera image, each grade of the scrap included in the camera image and a ratio of the grade; a second scrap determination model generated using teaching data including second learning images different from the first learning images, and configured to determine, based on the camera image, each grade of the scrap included in the camera image and a ratio of the grade; a selection model configured to determine which of the first scrap determination model and the second scrap determination model is to be used, based on the camera image; and an output section configured to output information of each grade of the scrap and a ratio of the grade determined based on the camera image using a model selected by the selection model out of the first scrap determination model and the second scrap determination model, wherein the first learning images are each an image of single-grade metal scrap, and when determining each grade of the scrap included in the camera image and a ratio of the grade using the first scrap determination model, the ratio of the grade is determined based on an area ratio of scrap of the grade in the camera image; the second learning images being each an image of mixed-grade metal scrap; and the ratio of each grade being a weight ratio to the total weight of scrap included in the camera image.