mhurhangee/patent-ind-claim-en huggingface dataset:
Tyre made of rubbery material comprising a sidewall , the sidewall comprising a coded matrix symbol , the coded matrix symbol comprising dark parts and light parts , characterized in that the dark parts are made up of a texture formed as an integral part of the said sidewall and contrasting against the rest of the tyre , the said texture being an organized arrangement of a plurality of protruding elements or a plurality of first recessed elements set back from the surface of the sidewall and in that the light parts of the coded matrix symbol are made up of a pattern comprising a plurality of second recessed elements and/or of boss elements , each recessed element /boss element having the shape of part of a sphere.
A method for providing a proof-of-retrievability, 'POR', to a client, for data stored on a storage entity, performed in a memory of one or more computing devices, comprising the steps of a) Encoding, by said client, data to be stored on said storage entity, said encoded data comprising at least one partition, b) Exchanging credentials between said storage entity, said client and an auditing entity, c) Computing, by said client, a commitment, said commitment being based on at least one random element, an index of said at least one partition and said at least one partition of said encoded data, d) Storing said encoded data on said storage entity together with said commitment, e) Computing, by said auditing entity, logging information for said stored data by performing a public POR between said auditing entity and said storage entity, said public POR comprising a random sampling of at least one partition of the stored data, wherein for sampling randomness for said POR a public source of unpredictable randomness is used, and wherein said logging information being computed based on the stored commitment and on said at least one partition of said stored data, f) Verifying, by said auditing entity, said computed logging information by checking whether a commitment based on said computed logging information corresponds to a subset of the stored commitment and g) Validating, by said client, said verified logging information of said auditing entity by performing the same verification according to step f) based on the verified logging information a) Encoding, by said client, data to be stored on said storage entity, said encoded data comprising at least one partition, b) Exchanging credentials between said storage entity, said client and an auditing entity, c) Computing, by said client, a commitment, said commitment being based on at least one random element, an index of said at least one partition and said at least one partition of said encoded data, d) Storing said encoded data on said storage entity together with said commitment, e) Computing, by said auditing entity, logging information for said stored data by performing a public POR between said auditing entity and said storage entity, said public POR comprising a random sampling of at least one partition of the stored data, wherein for sampling randomness for said POR a public source of unpredictable randomness is used, and wherein said logging information being computed based on the stored commitment and on said at least one partition of said stored data, f) Verifying, by said auditing entity, said computed logging information by checking whether a commitment based on said computed logging information corresponds to a subset of the stored commitment and g) Validating, by said client, said verified logging information of said auditing entity by performing the same verification according to step f) based on the verified logging information
An isolated anti-HIV antibody, or antigen binding portion thereof, comprising a CDRH 1, a CDRH 2, a CDRH 3, a CDRL 1, a CDRL 2 and a CDRL 3, wherein the CDRH 1, CDRH 2, CDRH 3, CDRL 1, CDRL 2 and CDRL 3 comprise the respective sequences of a CDR set selected from the group consisting of SEQ ID Nos: 69-74, SEQ ID NOs: 57-62, SEQ ID NOs: 63-68, SEQ ID NOs: 87-92, and SEQ ID NOs: 93- 98.
A computer-implemented method, comprising: receiving , by a computing device, a telephone call; determining , by the computing device, characteristics of the telephone call; based on the characteristics of the telephone call, determining , by the computing device, a level of screening to apply to the telephone call; determining , by the computing device, screening data based on screening the telephone call according to the level of screening; providing , for output by the computing device, the screening data, wherein: determining , by the computing device, the screening data, comprises generating synthesized speech based on screening the telephone call, and wherein the providing , for output by the computing device is further characterized by : providing, for output, the synthesized speech at a speech tempo that is greater than a speech tempo of a caller of the telephone call. receiving , by a computing device, a telephone call; determining , by the computing device, characteristics of the telephone call; based on the characteristics of the telephone call, determining , by the computing device, a level of screening to apply to the telephone call; determining , by the computing device, screening data based on screening the telephone call according to the level of screening; providing , for output by the computing device, the screening data, determining , by the computing device, the screening data, comprises generating synthesized speech based on screening the telephone call, and wherein the providing , for output by the computing device is further characterized by : providing, for output, the synthesized speech at a speech tempo that is greater than a speech tempo of a caller of the telephone call.
A method of treating ballast water containing aquatic organisms, the method comprising the steps of: generating a net superimposed DC biased time-varying pulsating AC electromagnetic wave, comprising an AC driving signal with time-varying frequency riding on a DC output with a predefined DC bias voltage; applying the net superimposed DC biased time-varying pulsating AC electromagnetic wave to the ballast water to excite the ballast water and the aquatic organisms therein to cause a flow of ionic current having a DC component travelling in a pulsating and time-varying AC manner in the ballast water and resident aquatic organisms to induce a vibration of electrons and molecules therein that acts to kill the said aquatic organisms to prevent biofouling, wherein the step of applying the net superimposed DC biased time-varying pulsating AC electromagnetic wave to the ballast water further comprises transmitting the net superimposed DC biased time-varying pulsating AC electromagnetic wave to one or more emitters, the emitters being configured to transmit the net superimposed DC biased pulsating AC electromagnetic wave. generating a net superimposed DC biased time-varying pulsating AC electromagnetic wave, comprising an AC driving signal with time-varying frequency riding on a DC output with a predefined DC bias voltage; applying the net superimposed DC biased time-varying pulsating AC electromagnetic wave to the ballast water to excite the ballast water and the aquatic organisms therein to cause a flow of ionic current having a DC component travelling in a pulsating and time-varying AC manner in the ballast water and resident aquatic organisms to induce a vibration of electrons and molecules therein that acts to kill the said aquatic organisms to prevent biofouling, wherein the step of applying the net superimposed DC biased time-varying pulsating AC electromagnetic wave to the ballast water further comprises transmitting the net superimposed DC biased time-varying pulsating AC electromagnetic wave to one or more emitters, the emitters being configured to transmit the net superimposed DC biased pulsating AC electromagnetic wave.
Milling tool having a substantially right circular-cylindrical base shape with a longitudinal axis (L) which defines an axial direction, along which longitudinal axis (L) at least one cutter portion and a shank portion and also an end region are formed, wherein the milling tool has right-hand spiral flutes and left-hand spiral flutes , and wherein discrete cutting elements are formed between the intersecting spiral flutes , on which cutting elements one or more cutting edges are formed, characterized in that the cutter portion at least has: - a first axial cutter region which adjoins the shank portion , wherein predominantly cutting edges having a pushing cut - when the milling tool is used in an intended direction of rotation (R) - are formed on the discrete cutting elements in the first axial cutter region , - furthermore a second axial cutter region which adjoins the end region and in which predominantly cutting edges having a pulling cut - when the milling tool is used in an intended direction of rotation (R) - are formed on the discrete cutting elements , - furthermore a transition region which is formed between the first and the second cutter region with respect to the axial direction, on which transition region there are formed both cutting edges having predominantly a pulling cut and cutting edges having predominantly a pushing cut. - a first axial cutter region which adjoins the shank portion , wherein predominantly cutting edges having a pushing cut - when the milling tool is used in an intended direction of rotation (R) - are formed on the discrete cutting elements in the first axial cutter region , - furthermore a second axial cutter region which adjoins the end region and in which predominantly cutting edges having a pulling cut - when the milling tool is used in an intended direction of rotation (R) - are formed on the discrete cutting elements , - furthermore a transition region which is formed between the first and the second cutter region with respect to the axial direction, on which transition region there are formed both cutting edges having predominantly a pulling cut and cutting edges having predominantly a pushing cut.
A method for molding a valve body of a waterworks valve around a valve seat including the steps of, providing a hollow valve seat comprised of a metal and having an upper lip configured to engage a sealing valve member , a bottom edge spaced from the upper lip at a lower portion of the seat, and a projection extending away from an outer surface of the seat intermediate the upper lip and bottom edge, and pouring a molten metal into a mold containing the valve seat to form a valve body surrounding at least a portion of the valve seat , including the projection, such that the upper lip of the seat is exposed and configured to be generally aligned with a movable sealing valve member of the waterworks valve , and forming a fluid flow pathway through an inlet of the valve body , through the seat and to an outlet of the valve body , characterized in that : the metal of the valve seat is selected to have a higher temperature melt property than the metal of the valve body ; the lower portion of the valve seat that is embedded within the valve body is of reduced thickness or wall width compared to an upper portion of the valve seat that extends out of the valve body so as to lessen impact of chill effects on the cooling characteristics of the valve body metal; the projection of the valve seat comprises a circular flange having a plurality of spaced apart indentations along an outer perimeter thereof to reduce the chill effect of the casting of the dissimilar metals of the valve seat and valve body and prevent rotational movement of the valve seat as it is machined in the valve body ; and a volume of a mass of the valve body surrounding the seat is at least twice a volume of at least an embedded portion of the seat so as to minimize chill effects of the seat material while the molten metal of the valve body cools and hardens; wherein a pressure tight and waterproof interface is formed between adjacent surfaces of the valve body and the valve seat . the metal of the valve seat is selected to have a higher temperature melt property than the metal of the valve body ; the lower portion of the valve seat that is embedded within the valve body is of reduced thickness or wall width compared to an upper portion of the valve seat that extends out of the valve body so as to lessen impact of chill effects on the cooling characteristics of the valve body metal; the projection of the valve seat comprises a circular flange having a plurality of spaced apart indentations along an outer perimeter thereof to reduce the chill effect of the casting of the dissimilar metals of the valve seat and valve body and prevent rotational movement of the valve seat as it is machined in the valve body ; and a volume of a mass of the valve body surrounding the seat is at least twice a volume of at least an embedded portion of the seat so as to minimize chill effects of the seat material while the molten metal of the valve body cools and hardens; wherein a pressure tight and waterproof interface is formed between adjacent surfaces of the valve body and the valve seat .
A particulate highly porous amorphous mesoporous magnesium carbonate material suitable for taking up oily substances, characterized in that the particulate highly porous amorphous mesoporous magnesium carbonate material has a total pore volume larger than 0.1 cm 3 /g, a specific surface larger than 100 m 2 /g and is constituted of particles having a peak particle size at or below 35 μm, wherein the total pore volume is determined by nitrogen gas adsorption at 77K, the pore size distribution is determined by non-local functional theory applied to the adsorption branch of a nitrogen adsorption isotherm, the specific surface area is determined by the BET equation, and the peak particle size is determined by laser diffraction.
Storage container for arrangement in a dosing means of a program-controlled cleaning device , in particular a domestic dishwasher, comprising a base body which provides a storage space for cleaning agents , the storage space having a storage chamber of a size that is used to store powder cleaning agent in an amount that is sufficient for carrying out a plurality of cleaning programs, and the storage chamber of the storage space having a discharge opening for discharging cleaning agent from the storage space into a metering chamber , which opening opens into the metering chamber of the storage container, characterised in that the storage space provides a storage compartment which is used as a cleaning agent reservoir, is separated from the storage chamber by means of a partition wall and has a size that is used to store powder cleaning agent in an amount that is sufficient to carry out a cleaning program, or has a size that is sufficient to be able to store 80% to 90% of the amount of cleaning agent that is needed to carry out a proper cleaning program.
A reciprocating compressor comprising: a compressor body in which a piston reciprocates in a cylinder to compress a fluid; a motor which drives the compressor body ; a controller which controls the compressor body ; and a tank which stores the fluid compressed in the compressor body , wherein the controller controls the compressor body to start the compressor body when a pressure of the fluid in the tank becomes equal to or lower than a start pressure, and stop the compressor body when the pressure of the fluid becomes equal to or higher than a stop pressure, and the controller sets, of at least one of the start pressure and the stop pressure, a pressure applied in a case where a temperature measured by at least one temperature sensor attached to the reciprocating compressor is outside a predetermined temperature range to be lower than a pressure applied in a case where the temperature measured by the at least one temperature sensor is within the predetermined temperature range, wherein the at least one temperature sensor comprises a temperature detecting means for detecting a temperature of the cylinder , characterized in that the start pressure set by the controller is reduced in stages when the temperature of the cylinder detected by the temperature detecting means falls below a prescribed value. a compressor body in which a piston reciprocates in a cylinder to compress a fluid; a motor which drives the compressor body ; a controller which controls the compressor body ; and a tank which stores the fluid compressed in the compressor body , wherein the controller controls the compressor body to start the compressor body when a pressure of the fluid in the tank becomes equal to or lower than a start pressure, and stop the compressor body when the pressure of the fluid becomes equal to or higher than a stop pressure, and the controller sets, of at least one of the start pressure and the stop pressure, a pressure applied in a case where a temperature measured by at least one temperature sensor attached to the reciprocating compressor is outside a predetermined temperature range to be lower than a pressure applied in a case where the temperature measured by the at least one temperature sensor is within the predetermined temperature range, wherein the at least one temperature sensor comprises a temperature detecting means for detecting a temperature of the cylinder , characterized in that the start pressure set by the controller is reduced in stages when the temperature of the cylinder detected by the temperature detecting means falls below a prescribed value.
A method of fabricating an array of phosphor-converted LEDs, the method comprising: forming a phosphor layer on a first surface of a carrier substrate ; forming trenches extending entirely through the phosphor layer and partially but not entirely through the carrier substrate to define a plurality of spaced-apart phosphor pixels ; attaching a corresponding LED to each of the phosphor pixels to form an array of phosphor-converted LEDs arranged on the first surface of the carrier substrate ; removing a sufficient portion of the carrier substrate from a second surface of the carrier substrate , opposite from the first surface, to reach and open the trenches and thereby expose phosphor pixel side walls defined by the trenches ; and after removing the sufficient portion of the carrier substrate to reach and open the trenches , retaining a portion of the carrier substrate on a light-output surface of each phosphor pixel . forming a phosphor layer on a first surface of a carrier substrate ; forming trenches extending entirely through the phosphor layer and partially but not entirely through the carrier substrate to define a plurality of spaced-apart phosphor pixels ; attaching a corresponding LED to each of the phosphor pixels to form an array of phosphor-converted LEDs arranged on the first surface of the carrier substrate ; removing a sufficient portion of the carrier substrate from a second surface of the carrier substrate , opposite from the first surface, to reach and open the trenches and thereby expose phosphor pixel side walls defined by the trenches ; and after removing the sufficient portion of the carrier substrate to reach and open the trenches , retaining a portion of the carrier substrate on a light-output surface of each phosphor pixel .
A device for moulding a workpiece made of glass, comprising at least the following components: - a means for heating the workpiece; - a moulding station with at least one moulding tool for moulding the workpiece; wherein - the moulding tool comprises heat dissipation means and the moulding tool comprises a material having a thermal conductivity of at least 400 W/mK; - wherein the temperature on the contact surface of the moulding tool during the moulding process is kept below 300 °C; - and at least one spray nozzle for applying an oil as a lubricant onto the surface of the moulding tool, in particular onto a moulding or contact surface of the moulding tool, wherein the amount of oil dispensed per moulding step and application instance is adjustable to less than 0.1 g; and wherein the areas of the respective moulding surface coming into contact with the glass of the workpiece during the moulding can each be provided with a full-surface covering layer comprising the oil. - a means for heating the workpiece; - a moulding station with at least one moulding tool for moulding the workpiece; wherein - the moulding tool comprises heat dissipation means and the moulding tool comprises a material having a thermal conductivity of at least 400 W/mK; - wherein the temperature on the contact surface of the moulding tool during the moulding process is kept below 300 °C; - and at least one spray nozzle for applying an oil as a lubricant onto the surface of the moulding tool, in particular onto a moulding or contact surface of the moulding tool, wherein the amount of oil dispensed per moulding step and application instance is adjustable to less than 0.1 g; and
A compound represented by Formula (1-1) or Formula (1-2): wherein, in Formula (1-1) and Formula (1-2), each X is independently oxygen, sulfur, or selenium; m is 0 or 1; each n existing at two positions is 0; each R 3 existing at two positions is independently fluorine, alkyl having 1 to 20 carbons, aryl, pyridyl, furyl, thienyl or thiazolyl, at least one hydrogen in the alkyl may be replaced with fluorine, and at least one hydrogen on a ring of the aryl, pyridyl, furyl, thienyl and thiazolyl may be replaced with at least one kind selected from fluorine and alkyl having 1 to 10 carbons.
A method for applying a dry ceramic glaze layer to a substrate, comprising: applying a layer of a first adhesive composition to a surface of a body; depositing a fritted glaze on the applied first layer of adhesive to form a frit layer thereon; applying a layer of a second adhesive composition on the frit layer; firing the substrate, frit layer and second adhesive layer to produce a glazed coating on the surface of the substrate; wherein at least one of the first adhesive composition, the fritted glaze, or the second adhesive composition contains an antimicrobial composition; and wherein the antimicrobial composition includes 2% ZnO and 4% Bi 2 O 3 , or the antimicrobial composition includes a first antimicrobial agent consisting of Ag 2 CO 3 and a second antimicrobial agent that is one of Bi 2 O 3 , CuO, SnO 2 , TiO 2 or ZnO; wherein the first antimicrobial agent is present in the glaze composition at a concentration of from two to four percent, by weight of the glaze composition; and wherein the second antimicrobial agent is present in the glaze composition at a concentration of from two to four percent, by weight of glaze composition applying a layer of a first adhesive composition to a surface of a body; depositing a fritted glaze on the applied first layer of adhesive to form a frit layer thereon; applying a layer of a second adhesive composition on the frit layer; firing the substrate, frit layer and second adhesive layer to produce a glazed coating on the surface of the substrate; wherein at least one of the first adhesive composition, the fritted glaze, or the second adhesive composition contains an antimicrobial composition; and wherein the antimicrobial composition includes 2% ZnO and 4% Bi 2 O 3 , or the antimicrobial composition includes a first antimicrobial agent consisting of Ag 2 CO 3 and a second antimicrobial agent that is one of Bi 2 O 3 , CuO, SnO 2 , TiO 2 or ZnO; wherein the first antimicrobial agent is present in the glaze composition at a concentration of from two to four percent, by weight of the glaze composition; and wherein the second antimicrobial agent is present in the glaze composition at a concentration of from two to four percent, by weight of glaze composition