mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle information transmitting device comprising: a reference mark display means configured to display a reference mark which is a reference indicating a safe state; and a danger display means configured to display presence or absence of danger to an own vehicle with a relative position of a figure with respect to the reference mark , wherein the danger display means displays a direction in which the danger is present with the relative position of the figure with respect to the reference mark , at the time danger is present, characterized in that the danger display means displays the figure at a position of the reference mark at an initial state, and, when the danger is present, changes the display position of the figure to a position on the same side as the relevant dangerous direction with regard to the reference mark , and at the time danger is present, the danger display means changes a size of a display area of the figure greater than a size thereof at the initial state. a reference mark display means configured to display a reference mark which is a reference indicating a safe state; and a danger display means configured to display presence or absence of danger to an own vehicle with a relative position of a figure with respect to the reference mark , wherein the danger display means displays a direction in which the danger is present with the relative position of the figure with respect to the reference mark , at the time danger is present, characterized in that the danger display means displays the figure at a position of the reference mark at an initial state, and, when the danger is present, changes the display position of the figure to a position on the same side as the relevant dangerous direction with regard to the reference mark , and at the time danger is present, the danger display means changes a size of a display area of the figure greater than a size thereof at the initial state.
A tool communication adapter system , comprising: an adapter body having first and second mechanical attachment ends ; a first electrical connector proximate the first mechanical attachment end and a second electrical connector proximate the second mechanical attachment end; a first supply channel comprising an opening extending through the body between the first and second mechanical attachment ends, and comprising a first supply channel connector at the first attachment end and a second supply channel connector at the second mechanical attachment end; and a control unit in communication with the first and second electrical connectors; wherein the control unit is configured to provide a filter command signal to a protective filter in response to a signal received at the first electrical connector; and wherein the first supply channel comprises a gas supply channel. an adapter body having first and second mechanical attachment ends ; a first electrical connector proximate the first mechanical attachment end and a second electrical connector proximate the second mechanical attachment end; a first supply channel comprising an opening extending through the body between the first and second mechanical attachment ends, and comprising a first supply channel connector at the first attachment end and a second supply channel connector at the second mechanical attachment end; and a control unit in communication with the first and second electrical connectors; wherein the control unit is configured to provide a filter command signal to a protective filter in response to a signal received at the first electrical connector; and wherein the first supply channel comprises a gas supply channel.
Device for blocking and releasing an essential functional component of a motor vehicle, in particular a steering column or a gearshift lever, comprising a locking bolt movably mounted between a locking position (VP) for locking the essential functional component and an unlocking position (EP) for unlocking the essential functional component, a gear , which is in mechanical operative connection with the locking bolt in order to transfer the locking bolt between the locking position (VP) and the unlocking position (EP), and a detection unit , which comprises a sliding element for moving a signal transmitter and at least one first stationary sensor element for detecting at least one pose (RS, DS) of the sliding element , wherein the sliding element is in mechanical operative connection with the gear in order to transfer the sliding element between a rest pose (RS), in which the signal transmitter is located at a distance from the first sensor element , and a detection pose (DS), in which the signal transmitter is located in the detection region of the first sensor element , characterized in that the detection unit comprises a spring element for applying a spring force (F) to the sliding element from the rest pose (RS) to the detection pose (DS), so that a double protection is provided when the sliding element is transferred from the rest pose (RS) to the detection pose (DS), wherein, if the sliding element loses the mechanical connection to the gear , the spring element ensures that the sliding element safely reaches its detection pose (DS) despite mechanical interruptions in the drive chain.
An apparatus for steaming and blending a food product, comprising: - a container for receiving the food product, wherein the container comprises a base , a side wall and an annular upstanding column extending from the base of the container and surrounding an opening in the base ; - a blade assembly comprising (i) a first annular support member which is coaxially arranged with the annular upstanding column of the container and (ii) at least one blade which extends from the first annular support member , wherein the first annular support member of the blade assembly and the annular upstanding column of the container together form a first steam inlet passage ; - a drive system comprising a motor and a drive shaft for coupling the motor to the blade assembly ; and - a steam generator for providing steam to the first steam inlet passage via a second steam inlet passage arranged within the annular upstanding column , characterized in that the drive shaft comprises a hollow interior which forms at least a part of the second steam inlet passage and is fluidly connected to the steam generator . - a container for receiving the food product, wherein the container comprises a base , a side wall and an annular upstanding column extending from the base of the container and surrounding an opening in the base ; - a blade assembly comprising (i) a first annular support member which is coaxially arranged with the annular upstanding column of the container and (ii) at least one blade which extends from the first annular support member , wherein the first annular support member of the blade assembly and the annular upstanding column of the container together form a first steam inlet passage ; - a drive system comprising a motor and a drive shaft for coupling the motor to the blade assembly ; and - a steam generator for providing steam to the first steam inlet passage via a second steam inlet passage arranged within the annular upstanding column ,
A method for performing transmissions (S305) of data between a plurality of K t transmitters and a plurality of K r receivers via a global MIMO channel H = [ H 1 ,..., H K r ] of a wireless communication system , by determining in a distributed fashion precoders to be applied for performing (S305) said transmissions, said precoders being respectively applied by said transmitters and jointly forming an overall precoder V , wherein each and every j -th transmitter among said plurality of K t transmitters performs: - obtaining (S302) short-term CSIT related data and building its own view Ĥ ( j ) of the global MIMO channel H ; - determining (S303) an estimate Ṽ ( j ) of the overall precoder V from the obtained short-term CSIT related data; characterized in that said j -th transmitter further performs: - gathering (S301) long-term statistics of Channel State Information at Transmitter CSIT errors incurred by each one of the K t transmitters with respect to the global MIMO channel H , the long-term statistics describing the random variation of the CSIT errors; - refining (S304) the estimate V ̃ j = V ̃ 1 j , ... , V ̃ K r j of the overall precoder V on the basis of the gathered long-term statistics of CSIT errors so as to obtain a refined precoder V j = V 1 j , ... , V K r j that is a view of the overall precoder V from the standpoint of said j -th transmitter , further on the basis of its own view Ĥ ( j ) of the global MIMO channel H, and further on the basis of a figure of merit representative of performance of said transmissions via the global MIMO channel H ; and - transmitting (S305) the data by applying a precoder that is formed by a part of the refined precoder V ( j ) which relates to said j -th transmitter among said plurality of K t transmitters . - obtaining (S302) short-term CSIT related data and building its own view Ĥ ( j ) of the global MIMO channel H ; - determining (S303) an estimate Ṽ ( j ) of the overall precoder V from the obtained short-term CSIT related data; - gathering (S301) long-term statistics of Channel State Information at Transmitter CSIT errors incurred by each one of the K t transmitters with respect to the global MIMO channel H , the long-term statistics describing the random variation of the CSIT errors; - refining (S304) the estimate V ̃ j = V ̃ 1 j , ... , V ̃ K r j of the overall precoder V on the basis of the gathered long-term statistics of CSIT errors so as to obtain a refined precoder V j = V 1 j , ... , V K r j that is a view of the overall precoder V from the standpoint of said j -th transmitter , further on the basis of its own view Ĥ ( j ) of the global MIMO channel H, and further on the basis of a figure of merit representative of performance of said transmissions via the global MIMO channel H ; and - transmitting (S305) the data by applying a precoder that is formed by a part of the refined precoder V ( j ) which relates to said j -th transmitter among said plurality of K t transmitters .
A textile sleeve for routing and protecting elongate members , comprising an elongate wall having opposite edges (16, 17, 17'; 116, 117) extending parallel to a central axis of the sleeve, said wall being woven with warp yarns extending parallel to said axis and fill yarns extending transversely to said warp yarns, characterized in that only said fill yarns are provided as hybrid yarns having a yarn filament core and first and second yarn filaments overlying said yarn filament core, said first yarn filament being twisted about said yarn filament core in a first helical direction and said second yarn filament being twisted over said first yarn filament and about said yarn filament core in a second helical direction, said first helical direction and said second helical direction being opposite one another, and in that said first and second yarn filaments are non-metallic.
A stirring device for stirring a particulate material and a grinding media (M) in a grinding mill , comprising a plurality of protective elements that extend outwardly from a body and are spaced apart around said body to deflect said particulate material and said grinding media (M) from said body , wherein the body comprises a planar body comprising an annular disc having opposed surfaces and an outer edge , wherein the plurality of protective elements extend radially from said outer edge and wherein the plurality of protective elements extend from each of said opposed surfaces .
An alternating current contactor, comprising a base and a magnetic yoke , wherein the magnetic yoke is mounted on a bottom plate of the base , and a magnetic yoke support for supporting and buffering the magnetic yoke is respectively provided at two sides of the magnetic yoke , characterized in that : a mounting groove which cooperates with the magnetic yoke is formed in one end of the magnetic yoke support , and sidewalls at two sides of the mounting groove are different in thickness.
Method for providing substantially linear payloads, in particular long cables or ropes of large diameter and/or weight, at a transport destination, comprising the following steps: 1a. Increasing the ground clearance for a first transport spool ; 1b. Putting the first transport spool into a spooling mode by converting it into a large or overload spool and taking up a payload by the first transport spool at a transport start location (A1); 2a. Distribution of the taken up payload by release of a partial payload (U1); 2b. Resetting the first transport spool to a transport mode and reducing the ground clearance for the first transport spool ; 3. Transportation of the distributed/split total payload; 4a. Increasing the ground clearance for the first transport spool ; 4b. Setting the first transport spool to the spooling mode again by converting it to a large or overload spool and rewinding the delivered partial payload (U2); and 5. Provision and/or release of the total payload at a transport destination (A2). 1a. Increasing the ground clearance for a first transport spool ; 1b. Putting the first transport spool into a spooling mode by converting it into a large or overload spool and taking up a payload by the first transport spool at a transport start location (A1); 2a. Distribution of the taken up payload by release of a partial payload (U1); 2b. Resetting the first transport spool to a transport mode and reducing the ground clearance for the first transport spool ; 3. Transportation of the distributed/split total payload; 4a. Increasing the ground clearance for the first transport spool ; 4b. Setting the first transport spool to the spooling mode again by converting it to a large or overload spool and rewinding the delivered partial payload (U2); and 5. Provision and/or release of the total payload at a transport destination (A2).
Use of organosilane in preparation of a polyolefin resin, the preparation of the polyolefin resin comprising conducting an olefin polymerization reaction of olefin monomers in the presence of a catalyst, wherein the organosilane is represented by a general formula R 1 m SiX n (OR 2 ) k , wherein R 1 is a C 2 -C 20 alkyl group and a terminal of R 1 has an α-olefin double bond, a norbornene group, a cycloolefin group or a dicyclopentadiene group, X is a halogen element, R 2 is a C 1 -C 20 linear chain, branched chain or isomerized alkyl group, m is an integer within a range of 1-3, n is an integer within a range of 1-3, k is an integer within a range of 0-2, and m+n+k=4, and wherein the organosilane is added before and/or during the olefin polymerization reaction.
Attachment for an operable drug delivery device , the operable drug delivery device being fully operable without the attachment , comprising a gripping sleeve member that is configured to receive a first member of the operable drug delivery device , wherein the gripping sleeve member comprises a first gripping sleeve member part comprising a first engagement feature at its inner surface that is configured to engage the first gripping sleeve member part in a torque-proof manner with the first member of the operable drug delivery device and wherein the attachment comprises a torque limiting mechanism defining a maximum allowed torque preventing that the first member of the operable drug delivery device is damaged by an excessive torque applied to the first gripping sleeve member part characterised in that the attachment comprises a spring member providing a spring force tending to move the first gripping sleeve member part into engagement with the first member of the operable drug delivery device .
Method for delegating access to at least one first blockchain (BC), implemented by an access delegation device (DD), the method being characterized in that it comprises: - a step (E20) of receiving an execution request from a terminal (UE), said request comprising at least one identifier of a user (A_ID) and at least one execution command (CMD_C) to execute an action within said at least one first blockchain, said command being encrypted via at least one encryption key belonging to said user; - a step (E21) of obtaining, on the basis of said at least one received identifier (A_ID) of said user, at least one decryption key (KEYA_PUB) of said user allowing said execution command (CMD_C) to be decrypted; - a step (E22) of decrypting said execution command (CMD_C) ; - a step (E23) of transmitting, to said at least one first blockchain (BC), an execution request to execute said execution command (CMD) decrypted via said at least one decryption key (KEYA_PUB). - a step (E20) of receiving an execution request from a terminal (UE), said request comprising at least one identifier of a user (A_ID) and at least one execution command (CMD_C) to execute an action within said at least one first blockchain, said command being encrypted via at least one encryption key belonging to said user; - a step (E21) of obtaining, on the basis of said at least one received identifier (A_ID) of said user, at least one decryption key (KEYA_PUB) of said user allowing said execution command (CMD_C) to be decrypted; - a step (E22) of decrypting said execution command (CMD_C) ; - a step (E23) of transmitting, to said at least one first blockchain (BC), an execution request to execute said execution command (CMD) decrypted via said at least one decryption key (KEYA_PUB).
A system for controlling intravascular data acquisition, comprising: a processor circuit configured to: generate, using first extravascular image data of a vessel, a roadmap of the vessel ; identify a region of interest of the vessel on the roadmap of the vessel ; receive second extravascular image data representative of an intravascular data acquisition device positioned within the vessel ; determine, based on the second extravascular image data, whether the intravascular data acquisition device has entered the region of interest ; and in response to determining that the intravascular data acquisition device has entered the region of interest, control the intravascular data acquisition device to obtain intravascular data of the region of interest ; and output, to a display device in communication with the processor circuit, a first graphical representation of the intravascular data of the region of interest . generate, using first extravascular image data of a vessel, a roadmap of the vessel ; identify a region of interest of the vessel on the roadmap of the vessel ; receive second extravascular image data representative of an intravascular data acquisition device positioned within the vessel ; determine, based on the second extravascular image data, whether the intravascular data acquisition device has entered the region of interest ; and in response to determining that the intravascular data acquisition device has entered the region of interest, control the intravascular data acquisition device to obtain intravascular data of the region of interest ; and output, to a display device in communication with the processor circuit, a first graphical representation of the intravascular data of the region of interest .
Gas turbine engine comprising: - a fan mounted to rotate about a main longitudinal axis , - an engine core , comprising in axial flow series a compressor , a combustor , and a turbine coupled to the compressor through a shaft , wherein the compressor is a low pressure compressor, - a reduction gearbox that receives an input from the shaft and outputs drive to the fan so as to drive the fan at a lower rotational speed than the shaft , wherein the compressor comprises a first stage (ST1) at an inlet and a second stage (ST2), downstream of the first stage (ST1), comprising respectively a first rotor (R1) with a row of first blades (B1) and a second rotor (R2) with a row of second blades (B2), the first and second blades (B1, B2) comprising respective leading edges , trailing edges and tips , characterised in that the ratio of a tip maximum thickness (T2max) of the second blades (B2) to a tip maximum thickness (T1max) of the first blades (B1) is greater than 0.20 and less than 0.45. - a fan mounted to rotate about a main longitudinal axis , - an engine core , comprising in axial flow series a compressor , a combustor , and a turbine coupled to the compressor through a shaft , wherein the compressor is a low pressure compressor, - a reduction gearbox that receives an input from the shaft and outputs drive to the fan so as to drive the fan at a lower rotational speed than the shaft , wherein the compressor comprises a first stage (ST1) at an inlet and a second stage (ST2), downstream of the first stage (ST1), comprising respectively a first rotor (R1) with a row of first blades (B1) and a second rotor (R2) with a row of second blades (B2), the first and second blades (B1, B2) comprising respective leading edges , trailing edges and tips , characterised in that the ratio of a tip maximum thickness (T2max) of the second blades (B2) to a tip maximum thickness (T1max) of the first blades (B1) is greater than 0.20 and less than 0.45.
Method for the separate extraction of rice bran oil and rice bran wax with the following steps: a) an extraction step involving provision an extraction vessel containing rice bran and percolating supercritical CO 2 through the extraction vessel at an extraction pressure p1 within the range of 100 and 1000 bar and at an extraction temperature T1; b) a first separation step involving transferring the supercritical CO 2 and an extract comprising of oil and waxes from step a) to a first separation vessel and reducing the pressure to a first separation pressure p2 that is lower than the extraction pressure p1 to precipitate a first product comprising rice bran oil from supercritical CO 2 ; and c) a second separation step involving transferring supercritical CO 2 and remaining extract from step b) to a second separation vessel and reducing the pressure to a second separation pressure p3 that is lower than the first separation pressure p2 to precipitate a second product comprising rice bran wax from a gaseous CO 2 , wherein the extraction temperature T1 for the extraction step a) is within the range of 55°C to 65°C, the first separation temperature T2 is within the range of 70°C to 80°C, and the second separation temperature T3 is within the range of 45°C to 55°C. a) an extraction step involving provision an extraction vessel containing rice bran and percolating supercritical CO 2 through the extraction vessel at an extraction pressure p1 within the range of 100 and 1000 bar and at an extraction temperature T1; b) a first separation step involving transferring the supercritical CO 2 and an extract comprising of oil and waxes from step a) to a first separation vessel and reducing the pressure to a first separation pressure p2 that is lower than the extraction pressure p1 to precipitate a first product comprising rice bran oil from supercritical CO 2 ; and c) a second separation step involving transferring supercritical CO 2 and remaining extract from step b) to a second separation vessel and reducing the pressure to a second separation pressure p3 that is lower than the first separation pressure p2 to precipitate a second product comprising rice bran wax from a gaseous CO 2 , wherein the extraction temperature T1 for the extraction step a) is within the range of 55°C to 65°C, the first separation temperature T2 is within the range of 70°C to 80°C, and the second separation temperature T3 is within the range of 45°C to 55°C.
Linear ball bearing cage (10; 10a) with at least one radial outer surface , wherein the linear ball bearing cage comprises at least a first seal element which is arranged at least partially on the outer surface, wherein the first seal element is a shrink film.