mhurhangee/patent-ind-claim-en huggingface dataset:
A robot assembling system for assembling a multi-layer cage comprising a bottom case , a top case , at least one partition plate and at least two partition assemblies , the robot assembling system comprising: a first assembling workstation configured to assemble the partition plate and the at least two partition assemblies to form a partition means ; a second assembling workstation configured to assemble the partition means and the top case to form a top case assembly ; a third assembling workstation configured to assemble the top case assembly and the bottom case to form a multi-layer cage; and at least one robot configured to transfer the bottom case , the top case , the partition plate , the at least two partition assemblies , the partition means or the top case assembly between respective assembling workstation , and assist an assembly process at each assembling workstation . a first assembling workstation configured to assemble the partition plate and the at least two partition assemblies to form a partition means ; a second assembling workstation configured to assemble the partition means and the top case to form a top case assembly ; a third assembling workstation configured to assemble the top case assembly and the bottom case to form a multi-layer cage; and at least one robot configured to transfer the bottom case , the top case , the partition plate , the at least two partition assemblies , the partition means or the top case assembly between respective assembling workstation , and assist an assembly process at each assembling workstation .
An image data invoking system for an application , the system comprising: a capture mode library , set in a kernel layer, wherein the capture mode library is filled with an image with an image resolution size of full size; a preview mode library , set in the kernel layer, wherein the preview mode library is filled with an image with an image resolution size of binning size, and wherein the image resolution size of binning size is smaller than the image resolution size of full size; a first tag , set in a hardware abstraction layer, wherein the first tag is filled with an image with the image resolution size of binning size; a third tag , the third tag is set in the hardware abstraction layer, the third tag comprises three subtags , and the three subtags obtain the image with the image resolution size of binning size from the preview mode library ; a second tag , set in an application framework layer, wherein the second tag obtains the image with the image resolution size of binning size from the first tag; a fourth tag , the fourth tag is set in the application framework layer, the fourth tag comprises three subtags , the three subtags of the fourth tag correspond to the three subtags of the third tag, and each subtag of the fourth tag obtains an image with the image resolution size of binning size from an corresponding subtag of the third tag to ensure that the image data invoking system passes the Compatibility Test Suite, CTS, test; and an application, set at an application layer, wherein the application obtains the image with the image resolution size of binning size from the second tag. a capture mode library , set in a kernel layer, wherein the capture mode library is filled with an image with an image resolution size of full size; a preview mode library , set in the kernel layer, wherein the preview mode library is filled with an image with an image resolution size of binning size, and wherein the image resolution size of binning size is smaller than the image resolution size of full size; a first tag , set in a hardware abstraction layer, wherein the first tag is filled with an image with the image resolution size of binning size; a third tag , the third tag is set in the hardware abstraction layer, the third tag comprises three subtags , and the three subtags obtain the image with the image resolution size of binning size from the preview mode library ; a second tag , set in an application framework layer, wherein the second tag obtains the image with the image resolution size of binning size from the first tag; a fourth tag , the fourth tag is set in the application framework layer, the fourth tag comprises three subtags , the three subtags of the fourth tag correspond to the three subtags of the third tag, and each subtag of the fourth tag obtains an image with the image resolution size of binning size from an corresponding subtag of the third tag to ensure that the image data invoking system passes the Compatibility Test Suite, CTS, test; and an application, set at an application layer, wherein the application obtains the image with the image resolution size of binning size from the second tag.
A polypeptide that is at least 60% identical to SEQ ID NO: 1, or that is at least 80% identical to SEQ ID NO: 2, wherein the polypeptide has a binding affinity for EGF that is less than or equal to 10 -5 M.
A method to make a lithium metal oxide powder comprised of Li, Ni, Mn, Co and oxygen useful to make a lithium ion battery cathode, comprising (a) providing a precursor mixture comprising a particulate precursor comprised of Li, Ni, Co and oxygen and a Mn particulate precursor devoid of Ni and Co, wherein the precursor particulate comprising Ni and Co has an unagglomerated primary particle size having a D50 of 0.1 to 0.8 micrometer, D10 of 0.05 to 0.3 micrometer, D90 of 0.35 to 1.5 micrometer and no particles essentially larger than 3 micrometers, (b) agglomerating the precursor mixture to form secondary particles comprised of primary particles of the particulate precursor comprised of Li, Ni, Co and oxygen and the Mn particulate precursor, (c) heating the secondary particles under an oxygen containing atmosphere to a maximum temperature of from 930 °C to 960 °C and for a time to form the lithium metal oxide. (a) providing a precursor mixture comprising a particulate precursor comprised of Li, Ni, Co and oxygen and a Mn particulate precursor devoid of Ni and Co, wherein the precursor particulate comprising Ni and Co has an unagglomerated primary particle size having a D50 of 0.1 to 0.8 micrometer, D10 of 0.05 to 0.3 micrometer, D90 of 0.35 to 1.5 micrometer and no particles essentially larger than 3 micrometers, (b) agglomerating the precursor mixture to form secondary particles comprised of primary particles of the particulate precursor comprised of Li, Ni, Co and oxygen and the Mn particulate precursor, (c) heating the secondary particles under an oxygen containing atmosphere to a maximum temperature of from 930 °C to 960 °C and for a time to form the lithium metal oxide.
A display device comprising: - an emissive display panel having a display output face and comprising spaced apart light emissive display pixels; - a polarization-sensitive view forming arrangement over the display output face, for directing light of a given first polarization from different pixels into different directions thereby enabling multiple views to be displayed in different directions simultaneously, wherein the view forming arrangement passes light of a second orthogonal polarization without significant change of direction; and - a polarization filter for blocking light of the first polarization arranged behind the display output face, namely on the opposite side of the emissive display panel to the view forming arrangement, wherein the display device has at least two modes of operation: - a first, see-through mode of operation in which the display panel does not emit light and the display device blocks the light of the first polarization but allows light of the second polarization to pass through in both opposite directions through the display device, through the spacing between the light emissive display pixels; and - a second, 3D display mode in which the emissive pixels output light of the first polarization from the display output face and the view forming arrangement forms multiple views in one output direction. - an emissive display panel having a display output face and comprising spaced apart light emissive display pixels; - a polarization-sensitive view forming arrangement over the display output face, for directing light of a given first polarization from different pixels into different directions thereby enabling multiple views to be displayed in different directions simultaneously, wherein the view forming arrangement passes light of a second orthogonal polarization without significant change of direction; and - a polarization filter for blocking light of the first polarization arranged behind the display output face, namely on the opposite side of the emissive display panel to the view forming arrangement, - a first, see-through mode of operation in which the display panel does not emit light and the display device blocks the light of the first polarization but allows light of the second polarization to pass through in both opposite directions through the display device, through the spacing between the light emissive display pixels; and - a second, 3D display mode in which the emissive pixels output light of the first polarization from the display output face and the view forming arrangement forms multiple views in one output direction.
Process for carrying out an antimicrobial treatment of the quaternary ammonium-based type, on a fabric or on a knit or a thread which can include, at least in part, silk, and independently of the type of construction, be it piqué, jersey, rib and stretch, where said fabric or knit is in the form of a semi-finished product or a finished article, said process which requires a finishing machine, characterized in that at least the following steps are required: a) Fill said machine with water at ambient temperature ( ~ 20/25°C) and load the thread, or the fabric, or the knit; add 1.5% of antimicrobial agent gradually over 15 minutes, once the introduction is complete, spin the goods in the bath for at least 30 minutes, in order to eliminate any possible anionic residues from previous working; b) Drain the bath and fill with new water at ambient temperature and take 10 millilitres of water to be used later for the first BPB environmental impact test of the antimicrobial agent; c) Continue by acidifying the bath to pH = 5.5 (tolerance ± 0.5); add 9% of antimicrobial agent over 15 minutes, at the end of which take another 10 ml of process water to be used later for the second BPB environmental impact test of the antimicrobial agent; d) Then increase the temperature until reaching the temperature of T = 60° ÷ 70°C adding Solvay soda to increase the pH up to 8 (tolerance ± 0.2) and maintain the bath conditions (pH and temperature) for approx. 20 minutes; e) Take 10 millilitres of process water and carry out the third BPB test to verify the absence of environmental impact of the antimicrobial agent on the three samples taken. If said test shows complete exhaustion of the antimicrobial agent, drain the bath without rinsing; f) Perform the drying in a tumbler or in a hot air oven. a) Fill said machine with water at ambient temperature ( ~ 20/25°C) and load the thread, or the fabric, or the knit; add 1.5% of antimicrobial agent gradually over 15 minutes, once the introduction is complete, spin the goods in the bath for at least 30 minutes, in order to eliminate any possible anionic residues from previous working; b) Drain the bath and fill with new water at ambient temperature and take 10 millilitres of water to be used later for the first BPB environmental impact test of the antimicrobial agent; c) Continue by acidifying the bath to pH = 5.5 (tolerance ± 0.5); add 9% of antimicrobial agent over 15 minutes, at the end of which take another 10 ml of process water to be used later for the second BPB environmental impact test of the antimicrobial agent; d) Then increase the temperature until reaching the temperature of T = 60° ÷ 70°C adding Solvay soda to increase the pH up to 8 (tolerance ± 0.2) and maintain the bath conditions (pH and temperature) for approx. 20 minutes; e) Take 10 millilitres of process water and carry out the third BPB test to verify the absence of environmental impact of the antimicrobial agent on the three samples taken. If said test shows complete exhaustion of the antimicrobial agent, drain the bath without rinsing; f) Perform the drying in a tumbler or in a hot air oven.
Superstructure that is configured to be selectively arrangeable on or over a transporter of a paving assembly , said transporter comprising a material feed configured to arrange a layer of paving material at a first distance from said transporter , wherein said superstructure comprises - a frame ; - a further material feed that is extendable beyond the transporter and configured to convey a paving material at a discharge at a second distance from said transporter , wherein said further material feed is arrangeable substantially central relative to a width of the transporter and extendable over the transporter ; and - a second material hopper in connection with the further material feed and configured to receive the paving material; characterized in that - the superstructure comprises a first material hopper , wherein the first material hopper of the superstructure is: - configured to receive a paving material; - configured to be in connection with the material feed of the transporter ; and in that both the first material hopper and the second material hopper are arrangeable substantially central relative to the width of the transporter and readily and continuously accessible during use to allow them to be filled with paving material by a feeder for a continuous paving operation of the paving assembly . - a frame ; - a further material feed that is extendable beyond the transporter and configured to convey a paving material at a discharge at a second distance from said transporter , wherein said further material feed is arrangeable substantially central relative to a width of the transporter and extendable over the transporter ; and - a second material hopper in connection with the further material feed and configured to receive the paving material; - the superstructure comprises a first material hopper , wherein the first material hopper of the superstructure is: - configured to receive a paving material; - configured to be in connection with the material feed of the transporter ; and in that both the first material hopper and the second material hopper are arrangeable substantially central relative to the width of the transporter and readily and continuously accessible during use to allow them to be filled with paving material by a feeder for a continuous paving operation of the paving assembly . - configured to receive a paving material; - configured to be in connection with the material feed of the transporter ; and in that both the first material hopper and the second material hopper are arrangeable substantially central relative to the width of the transporter and readily and continuously accessible during use to allow them to be filled with paving material by a feeder for a continuous paving operation of the paving assembly .
A positioning method for determining coordinates of a moving object , to which a plurality of antennas are attached, by performing a positioning calculation based on information included in positioning signals transmitted from a plurality of satellites and received by the plurality of antennas , the method comprising: calculating (ST505, ST506) a float solution that is a solution obtained by the positioning calculation by estimating a position of the moving object or a fixed solution that is a solution obtained by increasing an accuracy of the float solution for each antenna ; wherein the method is characterized by further comprising, in a case where a float solution is calculated for a first antenna of the plurality of antennas and a fixed solution is calculated for a second antenna of the plurality of antennas , estimating (ST516) a position of the first antenna based on the fixed solution of the second antenna , setting (ST516) a search range including the estimated position of the first antenna and estimating (ST517) a fixed solution of the first antenna by increasing the accuracy of the float solution of the first antenna in the set search range. calculating (ST505, ST506) a float solution that is a solution obtained by the positioning calculation by estimating a position of the moving object or a fixed solution that is a solution obtained by increasing an accuracy of the float solution for each antenna ; wherein the method is characterized by further comprising, in a case where a float solution is calculated for a first antenna of the plurality of antennas and a fixed solution is calculated for a second antenna of the plurality of antennas , estimating (ST516) a position of the first antenna based on the fixed solution of the second antenna , setting (ST516) a search range including the estimated position of the first antenna and estimating (ST517) a fixed solution of the first antenna by increasing the accuracy of the float solution of the first antenna in the set search range.
A system comprising two friction parts and a lubricated environment having a friction modifier between the two parts, the friction modifier being MoDTC, a coating being applied to one of the parts, characterized in that the other part is steel and in that the coating is chromium nitride applied to an outer surface of the part, which has a NaCl type crystallisation with a microhardness of 1800 +/- 200 HV.
A non-pneumatic tire comprising: an inside annular part ; an outside annular part disposed coaxially at an outer circumferential side of the inside annular part ; a plurality of spokes connecting the inside annular part and the outside annular part , and arranged along a tire-circumferential direction; and a tread provided at an outer circumferential surface of the outside annular part , wherein a pair of inside sloped faces approaching the outside annular part from both ends in a tire-width direction towards the tire-width direction center is formed at an outer circumferential part of the inside annular part opposing the outside annular part , a pair of outside sloped faces approaching the inside annular part from both ends in the tire-width direction towards the tire-width direction center is formed at an inner circumferential part of the outside annular part opposing the inside annular part , each spoke of the plurality of spokes has an intermediate part extending between the inside annular part and the outside annular part , an inside connection part that connects the intermediate part and the inside annular part , and an outside connection part connecting the intermediate part and the outside annular part , the inside connection part includes an inside continuous part having a shape continuously linking to the inside sloped face , and the outside connection part includes an outside continuous part having a shape continuous to the outside sloped face . an inside annular part ; an outside annular part disposed coaxially at an outer circumferential side of the inside annular part ; a plurality of spokes connecting the inside annular part and the outside annular part , and arranged along a tire-circumferential direction; and a tread provided at an outer circumferential surface of the outside annular part , wherein a pair of inside sloped faces approaching the outside annular part from both ends in a tire-width direction towards the tire-width direction center is formed at an outer circumferential part of the inside annular part opposing the outside annular part , a pair of outside sloped faces approaching the inside annular part from both ends in the tire-width direction towards the tire-width direction center is formed at an inner circumferential part of the outside annular part opposing the inside annular part , each spoke of the plurality of spokes has an intermediate part extending between the inside annular part and the outside annular part , an inside connection part that connects the intermediate part and the inside annular part , and an outside connection part connecting the intermediate part and the outside annular part , the inside connection part includes an inside continuous part having a shape continuously linking to the inside sloped face , and the outside connection part includes an outside continuous part having a shape continuous to the outside sloped face .
An enclosed variable frequency drive , comprising: a variable frequency drive having a 3D shape and upwardly directed air flow vents; an intake baffle disposed at a bottom portion of the variable frequency drive , wherein the intake baffle includes an internal duct to allow cooling air flow but to deter flame progression; and an enclosure configured to conform to the 3D shape of the variable frequency drive , wherein the enclosure is a fire shield having mating air flow vents to those of the variable frequency drive , wherein the fire shield includes side louvers configured to be directed to vent in an upward, or upside-down, direction away from the intake baffle . a variable frequency drive having a 3D shape and upwardly directed air flow vents; an intake baffle disposed at a bottom portion of the variable frequency drive , wherein the intake baffle includes an internal duct to allow cooling air flow but to deter flame progression; and an enclosure configured to conform to the 3D shape of the variable frequency drive , wherein the enclosure is a fire shield having mating air flow vents to those of the variable frequency drive , wherein the fire shield includes side louvers configured to be directed to vent in an upward, or upside-down, direction away from the intake baffle .
A method performed by a mobile communication device (3-1) configured for direct communication with another mobile communication device (3-2), the method comprising: receiving information broadcast by a base station ; and providing (S405, S505), to the base station in response to receiving the information, an indication that the mobile communication device (3-1) is involved in an ongoing direct communication for use by the base station in modifying resources used for said direct communication. receiving information broadcast by a base station ; and providing (S405, S505), to the base station in response to receiving the information, an indication that the mobile communication device (3-1) is involved in an ongoing direct communication for use by the base station in modifying resources used for said direct communication.
Edible oil composition, particularly for use in frying and cooking food, characterized by the fact that it consists of high oleic sunflower seed oil, natural extract rich in tocopherol (E306) and rosemary extract (E392).