mhurhangee/patent-ind-claim-en huggingface dataset:
A CVI (chemical vapor infiltration) method for densifying at least one porous component , comprising at least the steps of: - placing the at least one porous component inside a crucible ; - bringing the temperature (Ti) and the pressure (Pi) inside the crucible to a value adapted to densify the porous component to transform it into a densified or partially densified component ; - once the operational temperature and pressure are reached, flowing a reaction gas adapted to densify the porous component to transform it into a densified component inside the crucible ; characterized in that it provides the further steps of - keeping an oxidizing environment outside the crucible , wherein said external environment laps against said crucible ; and wherein - said crucible is made in at least one of the following materials which allows a thermal conductivity greater than 30 W/mK from room temperature to at least 1000 °C: - sintered silicon carbide (SiC); or - silicon-infiltrated silicon carbide (Si-SiC); or - sintered boron carbide (B4C); or - silicon-infiltrated boron carbide (Si-B4C); or - sintered zirconium carbide (ZrC); or - silicon-infiltrated zirconium carbide (Si-ZrC); or - a combination of silicon carbide (SiC), boron carbide (B4C) and sintered and/or silicon-infiltrated zirconium carbide (ZrC). - placing the at least one porous component inside a crucible ; - bringing the temperature (Ti) and the pressure (Pi) inside the crucible to a value adapted to densify the porous component to transform it into a densified or partially densified component ; - once the operational temperature and pressure are reached, flowing a reaction gas adapted to densify the porous component to transform it into a densified component inside the crucible ; characterized in that it provides the further steps of - keeping an oxidizing environment outside the crucible , wherein said external environment laps against said crucible ; and wherein - said crucible is made in at least one of the following materials which allows a thermal conductivity greater than 30 W/mK from room temperature to at least 1000 °C: - sintered silicon carbide (SiC); or - silicon-infiltrated silicon carbide (Si-SiC); or - sintered boron carbide (B4C); or - silicon-infiltrated boron carbide (Si-B4C); or - sintered zirconium carbide (ZrC); or - silicon-infiltrated zirconium carbide (Si-ZrC); or - a combination of silicon carbide (SiC), boron carbide (B4C) and sintered and/or silicon-infiltrated zirconium carbide (ZrC).
A flotation cell for treating particles suspended in slurry and for separating the slurry into an underflow and an overflow , the flotation cell comprising a flotation tank comprising a centre , a perimeter , a substantially horizontal level bottom , and a side wall ; a launder and a launder lip surrounding the perimeter of the tank ; an open froth surface (A f ) at the top of the flotation tank ; and a froth crowder shaped to direct froth in the open froth area (A f ) towards the launder lip , wherein the flotation tank further comprises blast tubes for introducing slurry infeed into the flotation tank, the blast tube comprising an inlet nozzle for feeding slurry infeed into the blast tube; and an elongated chamber arranged to receive under pressure the slurry infeed; characterized in that the blast tube further comprises an inlet for pressurized gas, the slurry infeed subjected to the pressurized gas as it is discharged from the inlet nozzle, an outlet nozzle configured to restrict flow of slurry infeed from the outlet nozzle, and to maintain slurry infeed in the elongated chamber under pressure, and wherein the outlet nozzle is configured to produce a supersonic shockwave into the slurry infeed , the supersonic shockwave inducing formation of flotation gas bubble - particle agglomerates. a flotation tank comprising a centre , a perimeter , a substantially horizontal level bottom , and a side wall ; a launder and a launder lip surrounding the perimeter of the tank ; an open froth surface (A f ) at the top of the flotation tank ; and a froth crowder shaped to direct froth in the open froth area (A f ) towards the launder lip , wherein the flotation tank further comprises blast tubes for introducing slurry infeed into the flotation tank, the blast tube comprising an inlet nozzle for feeding slurry infeed into the blast tube; and an elongated chamber arranged to receive under pressure the slurry infeed; characterized in that the blast tube further comprises an inlet for pressurized gas, the slurry infeed subjected to the pressurized gas as it is discharged from the inlet nozzle, an outlet nozzle configured to restrict flow of slurry infeed from the outlet nozzle, and to maintain slurry infeed in the elongated chamber under pressure, and wherein the outlet nozzle is configured to produce a supersonic shockwave into the slurry infeed , the supersonic shockwave inducing formation of flotation gas bubble - particle agglomerates.
Method for recovering lactose from an aqueous lactose solution, which method comprises - a concentration step, wherein water is removed from the aqueous lactose solution by freezing out water at a temperature below the eutectic temperature of the aqueous lactose solution and at a lactose concentration higher than the eutectic concentration of the aqueous lactose solution, thereby obtaining a concentrated lactose solution; - a crystallization step, wherein at least part of the concentrated lactose solution is subjected to crystallization at a temperature above the eutectic temperature of the concentrated lactose solution, thereby obtaining lactose crystals; and - an isolation step, wherein the lactose crystals formed in the crystallization step are separated from the remaining liquid. - a concentration step, wherein water is removed from the aqueous lactose solution by freezing out water at a temperature below the eutectic temperature of the aqueous lactose solution and at a lactose concentration higher than the eutectic concentration of the aqueous lactose solution, thereby obtaining a concentrated lactose solution; - a crystallization step, wherein at least part of the concentrated lactose solution is subjected to crystallization at a temperature above the eutectic temperature of the concentrated lactose solution, thereby obtaining lactose crystals; and - an isolation step, wherein the lactose crystals formed in the crystallization step are separated from the remaining liquid.
Method for creating an authenticable binary graphic code, wherein the method comprises at least the following steps: in response to a request for creation of a binary graphic code, creating a binary graphic encoded pattern for an information to be encoded; printing the binary graphic encoded pattern on a label or product surface ,the printing determining characteristic information about an area in which the binary graphic encoded pattern and the label or product surface overlap, wherein the binary graphic encoded pattern is used as a coordinate and a printed pattern or self-texture of the label or product surface is in a coordinate on the binary graphic encoded pattern, and the characteristic information includes a relative positional relationship between the printed pattern or the self-texture and the encoded pattern which cannot easily be copied by a counterfeiter; extracting the characteristic information and recording the characteristic information as all or part of a standard for authenticating the binary graphic code. in response to a request for creation of a binary graphic code, creating a binary graphic encoded pattern for an information to be encoded; printing the binary graphic encoded pattern on a label or product surface ,the printing determining characteristic information about an area in which the binary graphic encoded pattern and the label or product surface overlap, wherein the binary graphic encoded pattern is used as a coordinate and a printed pattern or self-texture of the label or product surface is in a coordinate on the binary graphic encoded pattern, and the characteristic information includes a relative positional relationship between the printed pattern or the self-texture and the encoded pattern which cannot easily be copied by a counterfeiter; extracting the characteristic information and recording the characteristic information as all or part of a standard for authenticating the binary graphic code.
A handheld power tool comprising: a handle assembly ; a power mechanism (20; 20') connected to the handle assembly ; and a working mechanism connected to the power mechanism (20; 20'); wherein the power mechanism (20; 20') comprises a main housing , an inner housing (24; 24') and a motor disposed in the inner housing (24; 24'), the main housing comprises a first air inlet at a side wall thereof, the inner housing comprises an opening (241; 241'), and wherein an airflow channel is located between the main housing and the inner housing (24; 24'), and in communication with the first air inlet , the opening (241; 241') and an inside of the inner housing (24; 24') characterized in that the main housing comprises a top cover located above the inner housing (24; 24'), wherein the inner housing (24; 24') is at least partially located above the motor and wherein the first air inlet is disposed at the top of the top cover and wherein the top cover comprises an extension wall extending downward from the inner side of the top cover , and wherein the extension wall is arranged between the first air inlet and the inner housing (24; 24'). a handle assembly ; a power mechanism (20; 20') connected to the handle assembly ; and a working mechanism connected to the power mechanism (20; 20'); wherein the power mechanism (20; 20') comprises a main housing , an inner housing (24; 24') and a motor disposed in the inner housing (24; 24'), the main housing comprises a first air inlet at a side wall thereof, the inner housing comprises an opening (241; 241'), and wherein an airflow channel is located between the main housing and the inner housing (24; 24'), and in communication with the first air inlet , the opening (241; 241') and an inside of the inner housing (24; 24') characterized in that the main housing comprises a top cover located above the inner housing (24; 24'), wherein the inner housing (24; 24') is at least partially located above the motor and wherein the first air inlet is disposed at the top of the top cover and wherein the top cover comprises an extension wall extending downward from the inner side of the top cover , and wherein the extension wall is arranged between the first air inlet and the inner housing (24; 24').
In a computing resource environment including at least two different resource name spaces, a method of generating a fully qualified resource name for a particular resource based on a context-based name of that resource and a particular usage context, the method comprising: receiving, as inputs, a name schema associated with the resource name, the context-based name, and the usage context; comparing an entry in the name schema and an entry in the context-based name; determining, based on an outcome of said comparing, whether the schema includes a moniker that is missing from the context-based name, where a moniker is a string representing a name or part of a name; in response to a determination that the schema includes a moniker that is missing from the context-based name, determining whether the missing moniker is an attribute space moniker, where an attribute space moniker is the unique name of a family of names of attributes associated with a resource; in response to a determination that the missing moniker is an attribute space moniker, adding the attribute space moniker to a full name that includes the context-based name; in response to a determination that the missing moniker is not an attribute space moniker, determining the attribute space associated with the missing moniker; searching the usage context for information representing an association between the missing moniker, the attribute space associated with the missing moniker, and a value assigned to the missing moniker; and appending the searched-for attribute space, missing moniker, and value assigned to the missing moniker to the full name. receiving, as inputs, a name schema associated with the resource name, the context-based name, and the usage context; comparing an entry in the name schema and an entry in the context-based name; determining, based on an outcome of said comparing, whether the schema includes a moniker that is missing from the context-based name, where a moniker is a string representing a name or part of a name; in response to a determination that the schema includes a moniker that is missing from the context-based name, determining whether the missing moniker is an attribute space moniker, where an attribute space moniker is the unique name of a family of names of attributes associated with a resource; in response to a determination that the missing moniker is an attribute space moniker, adding the attribute space moniker to a full name that includes the context-based name; in response to a determination that the missing moniker is not an attribute space moniker, determining the attribute space associated with the missing moniker; searching the usage context for information representing an association between the missing moniker, the attribute space associated with the missing moniker, and a value assigned to the missing moniker; and appending the searched-for attribute space, missing moniker, and value assigned to the missing moniker to the full name.
An electric power washer comprising: A. a main body comprising a pump and an electric power source , wherein the pump is operatively-connected to the electric power source ; B. a hose comprising a first end and a second end opposite the first end, wherein the first end is fluidly-connected to the pump ; C. a handle fluidly-connected to the second end, wherein the handle comprises a button ; and D. a control circuit operatively-connected to the pump , and the control circuit operatively-connected to the electric power source , wherein the control circuit controls the output of the pump , and wherein the button is operatively-connected to the control circuit , wherein the control circuit permits the pump to normally operate at up to 100% normal power, wherein 100% normal power is defined as the highest sustainable power draw which will not permanently damage the electric power source, motor or the pump, characterized in that when the button is activated, the control circuit permits the pump to operate at a boost power mode of from about 103% normal power to about 300% normal power; or from about 105% normal power to about 250% normal power; or from about 110% normal power to about 200% normal power, and wherein the control circuit comprises a timer operatively-connected to the control circuit , the control circuit terminates the boost power mode after a predetermined period of time or when the button is no longer activated whichever is shorter; wherein the control circuit intermittently pulses between the boost power mode and the normal power for the predetermined period of time. A. a main body comprising a pump and an electric power source , wherein the pump is operatively-connected to the electric power source ; B. a hose comprising a first end and a second end opposite the first end, wherein the first end is fluidly-connected to the pump ; C. a handle fluidly-connected to the second end, wherein the handle comprises a button ; and D. a control circuit operatively-connected to the pump , and the control circuit operatively-connected to the electric power source , wherein the control circuit controls the output of the pump , and wherein the button is operatively-connected to the control circuit , wherein the control circuit permits the pump to normally operate at up to 100% normal power, wherein 100% normal power is defined as the highest sustainable power draw which will not permanently damage the electric power source, motor or the pump, characterized in that when the button is activated, the control circuit permits the pump to operate at a boost power mode of from about 103% normal power to about 300% normal power; or from about 105% normal power to about 250% normal power; or from about 110% normal power to about 200% normal power, and wherein the control circuit comprises a timer operatively-connected to the control circuit , the control circuit terminates the boost power mode after a predetermined period of time or when the button is no longer activated whichever is shorter; wherein the control circuit intermittently pulses between the boost power mode and the normal power for the predetermined period of time.
A subsea boosting system for use with a direct current (DC) power system, said system comprising a plurality of subsea boosting modules , each of the plurality of subsea boosting modules comprising: a housing defining at least one interior chamber ; a fluid pump disposed within said at least one interior chamber; an electric motor disposed within said at least one interior chamber and drivingly coupled to said fluid pump; and a plurality of power components disposed within said at least one interior chamber and configured to deliver power to said electric motor, wherein said housing defines a plurality of interior chambers, said electric motor and said fluid pump are disposed in a first chamber of said plurality of interior chambers, and said plurality of power components are disposed in at least a second chamber of said plurality of interior chambers. a housing defining at least one interior chamber ; a fluid pump disposed within said at least one interior chamber; an electric motor disposed within said at least one interior chamber and drivingly coupled to said fluid pump; and a plurality of power components disposed within said at least one interior chamber and configured to deliver power to said electric motor, wherein said housing defines a plurality of interior chambers, said electric motor and said fluid pump are disposed in a first chamber of said plurality of interior chambers, and said plurality of power components are disposed in at least a second chamber of said plurality of interior chambers.
Method for monitoring or tracking between mobile devices (T1, ..., T15) of a same group of mobile devices, wherein - mobile devices (T1, ..., T15) broadcast messages in general broadcast mode over a radio interface in compliance with a short-range digital communication protocol, the messages being able to be received by all the other mobile devices (T1, ..., T15) in the vicinity and capable of communicating according to said protocol, the messages comprising encrypted data obtained by encryption of, at least, an identifier of the emitter device and a seed intended for single use or having a short period of validity, the encrypted data only being able to be decrypted by a limited group of mobile devices possessing a decryption key; - mobile devices (T1, ..., T15) receive the messages broadcast by the other mobile devices and decrypt the messages intended for a group to which they belong; and - wherein, if the protocol for short-range digital communication provides that the message comprises a field for the address of the emitter device, this field is filled with a randomised address intended for single use or having a short period of use, and in that the mobile devices (T1, ..., T15) emit, in addition to the messages intended for the groups to which they belong, dummy messages in order to conceal the number of groups to which each mobile device belongs. - mobile devices (T1, ..., T15) broadcast messages in general broadcast mode over a radio interface in compliance with a short-range digital communication protocol, the messages being able to be received by all the other mobile devices (T1, ..., T15) in the vicinity and capable of communicating according to said protocol, the messages comprising encrypted data obtained by encryption of, at least, an identifier of the emitter device and a seed intended for single use or having a short period of validity, the encrypted data only being able to be decrypted by a limited group of mobile devices possessing a decryption key; - mobile devices (T1, ..., T15) receive the messages broadcast by the other mobile devices and decrypt the messages intended for a group to which they belong; and - wherein, if the protocol for short-range digital communication provides that the message comprises a field for the address of the emitter device, this field is filled with a randomised address intended for single use or having a short period of use,
Apparatus for automatically unstacking a pallet (P) on which at least two stacks of blanks (B) are arranged, the apparatus comprising: - an unstacking station configured for: o receiving a pallet (P) on which are arranged at least two stacks of blanks (B) in collapsed condition; and for o taking off one by one individual blanks (B) from the at least two stacks of blanks (B) which are on a pallet (P) which is received in the unstacking station ; - a feed track for conveying pallets (P), the feed track linking up by a discharge end with the unstacking station for the purpose of feeding a pallet with stacks of blanks (B) to be unstacked to the unstacking station ; - a blank main discharge assembly for discharging individual blanks (B) to a further processing station; - a pallet buffer position for storing empty pallets; - a portal conveyor provided with a gripper ; characterized in that the apparatus further comprises: - a cover buffer position for storing covers (C) with which the at least two stacks of blanks on a pallet (P) are covered; - an intermediate sheet buffer position for storing intermediate sheets (I) which extend at different height levels between the blanks (B) of the at least two stacks of blanks (B); wherein the gripper is configured for picking up a pallet (P), a cover (C) or intermediate sheet (I) at the unstacking station and for delivering a pallet (P) to the pallet buffer position , a cover (C) to the cover buffer position and for delivering an intermediate sheet (I) to the intermediate sheet buffer position . - an unstacking station configured for: o receiving a pallet (P) on which are arranged at least two stacks of blanks (B) in collapsed condition; and for o taking off one by one individual blanks (B) from the at least two stacks of blanks (B) which are on a pallet (P) which is received in the unstacking station ; o receiving a pallet (P) on which are arranged at least two stacks of blanks (B) in collapsed condition; and for o taking off one by one individual blanks (B) from the at least two stacks of blanks (B) which are on a pallet (P) which is received in the unstacking station ; - a feed track for conveying pallets (P), the feed track linking up by a discharge end with the unstacking station for the purpose of feeding a pallet with stacks of blanks (B) to be unstacked to the unstacking station ; - a blank main discharge assembly for discharging individual blanks (B) to a further processing station; - a pallet buffer position for storing empty pallets; - a portal conveyor provided with a gripper ; - a cover buffer position for storing covers (C) with which the at least two stacks of blanks on a pallet (P) are covered; - an intermediate sheet buffer position for storing intermediate sheets (I) which extend at different height levels between the blanks (B) of the at least two stacks of blanks (B);