mhurhangee/patent-ind-claim-en huggingface dataset:
A flow synthesis process for producing a compound of the Formula 33 and its pharmaceutically acceptable salts, the process comprising the steps of: a) preparing ethyl shikimate of Formula 39 by reacting shikimic acid with a reagent selected from the group consisting of (COCI) 2 , SOCI 2 , benzene sulphonic acid (BSA), p-toluene sulphonic acid (PTSA), and Amberlyst 15, b) reacting the ethyl shikimate of Formula 39 with mesyl chloride in the presence of a base selected from the group consisting of trimethyl amine (TEA), 1,8-diazabicyclo(5.4.0)undec-7-ene (DBU), imidazole, and trihexyl amine (THA) to produce the O-trimesylate of Formula 40 c) reacting the O-trimesylate of Formula 40 in an azidation reaction with an appropriate azidating agent to produce the azide of Formula 41 d) reacting the azide of Formula 41 in an aziridation reaction with a trialkyl phosphite to produce the aziridine of Formula 42 e) reacting the aziridine of Formula 42 with 3-pentanol in the presence of a Lewis acid catalyst to produce the 3-pentyl ether of Formula 43 f) reacting the 3-pentyl ether of Formula 43 in an acetylation reaction with H 2 SO 4 , followed by Ac 2 O in the presence of a suitable base to produce the acetamide of Formula 44 , g) reacting the acetamide of Formula 44 in an azidation reaction with an appropriate azidating reagent produce the azide of Formula 32 and h) reacting the azide of Formula 32 by mixing the azide with CoCl 2 , and reacting the mixture with NaBH 4 to produce the compound of Formula 33. a) preparing ethyl shikimate of Formula 39 by reacting shikimic acid with a reagent selected from the group consisting of (COCI) 2 , SOCI 2 , benzene sulphonic acid (BSA), p-toluene sulphonic acid (PTSA), and Amberlyst 15, b) reacting the ethyl shikimate of Formula 39 with mesyl chloride in the presence of a base selected from the group consisting of trimethyl amine (TEA), 1,8-diazabicyclo(5.4.0)undec-7-ene (DBU), imidazole, and trihexyl amine (THA) to produce the O-trimesylate of Formula 40 c) reacting the O-trimesylate of Formula 40 in an azidation reaction with an appropriate azidating agent to produce the azide of Formula 41 d) reacting the azide of Formula 41 in an aziridation reaction with a trialkyl phosphite to produce the aziridine of Formula 42 e) reacting the aziridine of Formula 42 with 3-pentanol in the presence of a Lewis acid catalyst to produce the 3-pentyl ether of Formula 43 f) reacting the 3-pentyl ether of Formula 43 in an acetylation reaction with H 2 SO 4 , followed by Ac 2 O in the presence of a suitable base to produce the acetamide of Formula 44 , g) reacting the acetamide of Formula 44 in an azidation reaction with an appropriate azidating reagent produce the azide of Formula 32 and h) reacting the azide of Formula 32 by mixing the azide with CoCl 2 , and reacting the mixture with NaBH 4 to produce the compound of Formula 33.
A process for isomerizing one or more C 4 -C 24 alpha olefins to produce an isomerization mixture comprising one or more C 4 -C 24 internal olefins, the process comprising contacting an olefinic feed comprising the one or more C 4 -C 24 alpha olefins with a catalyst under isomerization conditions, wherein the catalyst comprises a microporous crystalline aluminosilicate from the ZSM-48 group having a SiO 2 /Al 2 O 3 molar ratio of less than or equal to 100.
A refrigerator cabinet comprising: - a container body defining an internal compartment (V) adapted to house products to be refrigerated and provided with an access opening (A), and - a plurality of access doors to the internal compartment (V), set mutually side by side to cover the access opening (A), each access door comprising ∘ a counter-frame of rectangular shape fixed to the container body to surround partially the access opening (A) and comprising a first vertical upright , an opposite second vertical upright , a first horizontal crosspiece and a second horizontal crosspiece , and ∘ a panel adapted to cooperate with the counter-frame to close partially the access opening (A) and provided with a plate of insulating and optically transparent material and with a support frame , with quadrangular shape, able to support said plate , wherein said panel is movable between a closure position, in which it completely bears on the counter-frame and prevents access to an access opening portion (A) subtended to the counter-frame, and an access position, in which it is at least partially raised from the counter-frame and allows access to the access opening portion identified by the counter-frame, characterized in that the vertical uprights of two adjacent counter-frames are in mutual contact and are rigidly fixed to each other. - a container body defining an internal compartment (V) adapted to house products to be refrigerated and provided with an access opening (A), and - a plurality of access doors to the internal compartment (V), set mutually side by side to cover the access opening (A), each access door comprising ∘ a counter-frame of rectangular shape fixed to the container body to surround partially the access opening (A) and comprising a first vertical upright , an opposite second vertical upright , a first horizontal crosspiece and a second horizontal crosspiece , and ∘ a panel adapted to cooperate with the counter-frame to close partially the access opening (A) and provided with a plate of insulating and optically transparent material and with a support frame , with quadrangular shape, able to support said plate , ∘ a counter-frame of rectangular shape fixed to the container body to surround partially the access opening (A) and comprising a first vertical upright , an opposite second vertical upright , a first horizontal crosspiece and a second horizontal crosspiece , and ∘ a panel adapted to cooperate with the counter-frame to close partially the access opening (A) and provided with a plate of insulating and optically transparent material and with a support frame , with quadrangular shape, able to support said plate ,
A magnetic resonance method using an MRI system, for cancelling undesired signals generated by a first off resonance RF pulse of a preparation pulse sequence, said method comprising: applying the first off resonance radio frequency (RF) pulse for selectively exciting undesired signals; applying a second off resonance RF pulse Z for offsetting the inhomogeneity of a main magnetic field generated due to the first off resonance RF pulse, the second off resonance RF pulse having a phase difference of 180 degrees from the first off resonance RF pulse; and applying a plurality of auxiliary gradient magnetic fields for offsetting the inhomogeneity of the main magnetic field due to the first and second off resonance RF pulses, wherein the application of the plurality of auxiliary gradient magnetic fields includes: adjusting values and signs of each of the plurality of auxiliary gradient magnetic fields, such that the sum over time of the plurality of auxiliary gradient magnetic fields becomes wherein at least one auxiliary gradient magnetic field is applied before the application of the first off resonance RF pulse, and at least one auxiliary gradient magnetic field is applied between the application of the first off resonance RF pulse and the application of the second off resonance RF pulse. applying the first off resonance radio frequency (RF) pulse for selectively exciting undesired signals; applying a second off resonance RF pulse Z for offsetting the inhomogeneity of a main magnetic field generated due to the first off resonance RF pulse, the second off resonance RF pulse having a phase difference of 180 degrees from the first off resonance RF pulse; and applying a plurality of auxiliary gradient magnetic fields for offsetting the inhomogeneity of the main magnetic field due to the first and second off resonance RF pulses, wherein the application of the plurality of auxiliary gradient magnetic fields includes: adjusting values and signs of each of the plurality of auxiliary gradient magnetic fields, such that the sum over time of the plurality of auxiliary gradient magnetic fields becomes wherein at least one auxiliary gradient magnetic field is applied before the application of the first off resonance RF pulse, and at least one auxiliary gradient magnetic field is applied between the application of the first off resonance RF pulse and the application of the second off resonance RF pulse. adjusting values and signs of each of the plurality of auxiliary gradient magnetic fields, such that the sum over time of the plurality of auxiliary gradient magnetic fields becomes wherein at least one auxiliary gradient magnetic field is applied before the application of the first off resonance RF pulse, and at least one auxiliary gradient magnetic field is applied between the application of the first off resonance RF pulse and the application of the second off resonance RF pulse.
An assembly of two structural parts of a wind turbine wherein the structural parts are to be connected in a flange-to-flange connection, the assembly further comprising a wind turbine installation system for guiding the two structural parts of a wind turbine during installation, the system comprising: a guide system for guiding the engagement of the first structural part to the second structural part , the guide system comprising: a guide post coupled to the first structural part ; a guide receiver coupled to the second structural part and configured to receive the guide post therein; and a shock absorber arranged to dampen shock loads from the engagement of the guide post with the guide receiver ; wherein the guide system includes locking means configured to lock the guide post to the guide receiver when installed therein; wherein the locking means includes one or more deployable locking members that are engageable with a respective one or more sockets; and wherein the one or more deployable locking members are provided as part of the guide post , and the one or more sockets are provided as part of the guide receiver . a guide post coupled to the first structural part ; a guide receiver coupled to the second structural part and configured to receive the guide post therein; and a shock absorber arranged to dampen shock loads from the engagement of the guide post with the guide receiver ; wherein the guide system includes locking means configured to lock the guide post to the guide receiver when installed therein; wherein the locking means includes one or more deployable locking members that are engageable with a respective one or more sockets; and wherein the one or more deployable locking members are provided as part of the guide post , and the one or more sockets are provided as part of the guide receiver .
A display apparatus, comprising a projector device , a reflector structure and a light beam diffuser structure , wherein light emitted from the projector device passes through the light beam diffuser structure , is reflected by the reflector structure , and then reaches a first predetermined region ; the light beam diffuser structure is configured to diffuse a light beam passing through the light beam diffuser structure without changing chief light of the light beam; the reflector structure comprises a plurality of sub-reflector structures , the plurality of sub-reflector structures are configured to reflect the light emitted from the projector device and the light reflected by the plurality of sub-reflector structures reaches a second predetermined region within the first predetermined region if the light beam diffuser structure is removed from an optical path from the projector device to the first predetermined region , and an area of the second predetermined region is smaller than an area of the first predetermined region ; characterized in that the light beam diffuser structure and the reflector structure are stacked, the light emitted from the projector device is incident on the reflector structure after passing through the light beam diffuser structure , and the light reflected by the reflector structure passes through the light beam diffuser structure again and then reaches the first predetermined region . wherein light emitted from the projector device passes through the light beam diffuser structure , is reflected by the reflector structure , and then reaches a first predetermined region ; the light beam diffuser structure is configured to diffuse a light beam passing through the light beam diffuser structure without changing chief light of the light beam; the reflector structure comprises a plurality of sub-reflector structures , the plurality of sub-reflector structures are configured to reflect the light emitted from the projector device and the light reflected by the plurality of sub-reflector structures reaches a second predetermined region within the first predetermined region if the light beam diffuser structure is removed from an optical path from the projector device to the first predetermined region , and an area of the second predetermined region is smaller than an area of the first predetermined region ; characterized in that the light beam diffuser structure and the reflector structure are stacked, the light emitted from the projector device is incident on the reflector structure after passing through the light beam diffuser structure , and the light reflected by the reflector structure passes through the light beam diffuser structure again and then reaches the first predetermined region .
A froth flotation arrangement for treating mineral ore particles suspended in slurry, comprising a flotation cell for separating the slurry into an underflow and an overflow , wherein the arrangement comprises: - a primary line comprising at least three flotation cells connected in series, wherein each subsequent flotation cell is arranged to receive the underflow from the previous flotation cell , - the flotation cell comprising a tank , and the flotation cell comprising an impeller within the tank , and - the flotation cell comprising a gas supply within the tank , - the tank comprising a volume of at least 200 m 3 , - the flotation cell comprising a froth collection launder capable to receive the overflow , - the froth collection launder comprising a froth overflow lip , - the flotation cell having an available froth surface area (A froth), - the flotation cell having a pulp area (A pulp ), where the pulp area (A pulp ) is calculated as an average from the cross sectional areas of the tank at the height (h1) of the impeller , - a ratio between a height (h) from a bottom of the tank to the froth overflow lip of the froth collection launder and the diameter (D) of the tank at the height (h1) of the impeller (h/D) is less than 1,5, - characterized in that the third flotation cell or subsequent flotation cell in the series has a ratio between an available froth surface area and the pulp area (A froth /A pulp ) less than 0,45; and in that the froth collection launders are circular shaped and positioned coaxially, and an average froth transport distance (d tr ) is less than 100 cm. - a primary line comprising at least three flotation cells connected in series, wherein each subsequent flotation cell is arranged to receive the underflow from the previous flotation cell , - the flotation cell comprising a tank , and the flotation cell comprising an impeller within the tank , and - the flotation cell comprising a gas supply within the tank , - the tank comprising a volume of at least 200 m 3 , - the flotation cell comprising a froth collection launder capable to receive the overflow , - the froth collection launder comprising a froth overflow lip , - the flotation cell having an available froth surface area (A froth), - the flotation cell having a pulp area (A pulp ), where the pulp area (A pulp ) is calculated as an average from the cross sectional areas of the tank at the height (h1) of the impeller , - a ratio between a height (h) from a bottom of the tank to the froth overflow lip of the froth collection launder and the diameter (D) of the tank at the height (h1) of the impeller (h/D) is less than 1,5, - characterized in that the third flotation cell or subsequent flotation cell in the series has a ratio between an available froth surface area and the pulp area (A froth /A pulp ) less than 0,45; and in that
A method of manufacturing a spectacle lens, comprising: an expected shape specifying step of obtaining by a simulation process, a bevel shape after change of a shape due to interference of a beveling tool for beveling an uncut spectacle lens, as an expected finish shape of a bevel; a theoretical circumference calculating step of obtaining a bevel circumference in a spectacle lens having the expected finish shape obtained in the expected shape specifying step as a theoretical circumference of the spectacle lens; a lens edging step of beveling the uncut spectacle lens; a circumference measuring step of measuring a bevel circumference of the spectacle lens beveled in the lens edging step; a comparing step of comparing the theoretical circumference obtained in the theoretical circumference calculating step and the bevel circumference measured in the circumference measuring step; and a judging step of judging defect and non-defect of the spectacle lens beveled in the lens edging step based on a comparison result in the comparing step. an expected shape specifying step of obtaining by a simulation process, a bevel shape after change of a shape due to interference of a beveling tool for beveling an uncut spectacle lens, as an expected finish shape of a bevel; a theoretical circumference calculating step of obtaining a bevel circumference in a spectacle lens having the expected finish shape obtained in the expected shape specifying step as a theoretical circumference of the spectacle lens; a lens edging step of beveling the uncut spectacle lens; a circumference measuring step of measuring a bevel circumference of the spectacle lens beveled in the lens edging step; a comparing step of comparing the theoretical circumference obtained in the theoretical circumference calculating step and the bevel circumference measured in the circumference measuring step; and a judging step of judging defect and non-defect of the spectacle lens beveled in the lens edging step based on a comparison result in the comparing step.
A baling machine including a pre-baling chamber ; one or more retractable and extendable tines (24,28; 38,39) including at least one stuffer tine (39; 58) supported on at least a first support (29; 57) and that is capable of sequentially penetrating, moving in and retracting from the pre-baling chamber in accordance with a stuffing locus; and at least one stuffer activator for causing the at least one stuffer tine (39; 58) in sequence to extend into, move in and retract from the pre-baling chamber ; wherein the baling machine includes one or more vector or pseudovector quantity sensors (41,47; 68, 69) that sense a vector or pseudovector quantity acting on one or more rotative and/or reciprocable components of or connected to the baling machine ; and wherein the baling machine includes or is operatively connected to one or more processors (42; 72) for estimating from the sensed vector or pseudovector quantity the amount of plant matter in the pre-baling chamber or a variable related thereto and causing the stuffer activator to effect extension of the stuffer tine (39; 58) into the pre-baling chamber when the estimated amount of plant matter or the related variable attains or exceeds a threshold corresponding to desired filling of the pre-baling chamber , characterised in that the baling machine includes at least one respective said sensor (41, 47; 68, 69) sensing a vector or pseudovector quantity at left- and right-hand sides of the pre-baling chamber .
An electronic device , comprising: a node configured to communicatively couple to an antenna; and an interface circuit , communicatively coupled to the node, configured to communicate with a recipient electronic device (110-1), and configured to: receive a wake-up-radio (WUR)-setup request associated with the recipient electronic device, wherein the WUR-setup request specifies a proposed configurable wake-up-frame format ; and provide a WUR-setup response intended for the recipient electronic device, wherein the WUR-setup response specifies a selected configurable wake-up-frame format . a node configured to communicatively couple to an antenna; and an interface circuit , communicatively coupled to the node, configured to communicate with a recipient electronic device (110-1), and configured to: receive a wake-up-radio (WUR)-setup request associated with the recipient electronic device, wherein the WUR-setup request specifies a proposed configurable wake-up-frame format ; and provide a WUR-setup response intended for the recipient electronic device, wherein the WUR-setup response specifies a selected configurable wake-up-frame format . receive a wake-up-radio (WUR)-setup request associated with the recipient electronic device, wherein the WUR-setup request specifies a proposed configurable wake-up-frame format ; and provide a WUR-setup response intended for the recipient electronic device, wherein the WUR-setup response specifies a selected configurable wake-up-frame format .
A control device comprising: a planar front surface comprising at least one indicia; a planar printed circuit board; an antenna configured to transmit or receive radio frequency signals, characterised in that the antenna is located between the front surface and the printed circuit board; a radio-frequency communication circuit mounted to the printed circuit board configured to transmit or receive the radio frequency signals via the antenna; one or more LEDs mounted to the printed circuit board; and a light-guiding component comprising a planar portion and a curved portion , the planar portion located between the front surface and the antenna, and the curved portion extending between the LEDs on the printed circuit board and the planar portion, the light-guiding component configured to transmit light generated by the LEDs to the front surface to illuminate the indicia. a planar front surface comprising at least one indicia; a planar printed circuit board; an antenna configured to transmit or receive radio frequency signals, characterised in that the antenna is located between the front surface and the printed circuit board; a radio-frequency communication circuit mounted to the printed circuit board configured to transmit or receive the radio frequency signals via the antenna; one or more LEDs mounted to the printed circuit board; and a light-guiding component comprising a planar portion and a curved portion , the planar portion located between the front surface and the antenna, and the curved portion extending between the LEDs on the printed circuit board and the planar portion, the light-guiding component configured to transmit light generated by the LEDs to the front surface to illuminate the indicia.
A method of identifying a component of genetic material, the method comprising the steps of: (a) contacting a composition comprising a cell or capsid with a composition comprising: (i) a quaternary ammonium compound; (b) contacting the composition obtained in step (a) with a composition comprising an proteinaceous washing agent; and (c) using the material obtained in step (b) in an amplification method; wherein there are no purification steps between step (b) and step (c); wherein in step (b) the composition obtained in step (a) is added to a composition comprising the proteinaceous washing agent in a ratio of from 10:1 to 1:100. (a) contacting a composition comprising a cell or capsid with a composition comprising: (i) a quaternary ammonium compound; (i) a quaternary ammonium compound; (b) contacting the composition obtained in step (a) with a composition comprising an proteinaceous washing agent; and (c) using the material obtained in step (b) in an amplification method;