mhurhangee/ep-ind-claims huggingface dataset:
Plough body with a mould board with a work surface, a plough body, a share and side guides, whereby the mould board, which is formed in multiple parts and consists of at least one shin and at least threei slats, is coated in part with ceramic platelets, characterised in that the work surface of at least one slat (9; 11; 12) is fitted completely with a ceramic layer corresponding to its contour for which purpose the ceramic layer, which consists of individual groups) of adhesive ceramic segments (8, 14) that are arranged in a mosaic shape, is sorted and arranged with its ceramic elements (8, 14) on a foil and is designed to be adhered to or coated on the respective slat (9, 11, 12) with the side opposite to the foil.
An aerosol delivery device comprising: a multi-layer microfluidic vaporizer including a substrate that defines: a reservoir for storing a liquid aerosol precursor composition; at least one heater; and capillary channels configured for movement of the aerosol precursor composition to the at least one heater; characterized in that the microfluidic vaporizer comprises a cover configured to overlie the substrate and that includes microperforations therein so that vapor passes therethrough but liquid is prevented from passing therethrough. a multi-layer microfluidic vaporizer including a substrate that defines: a reservoir for storing a liquid aerosol precursor composition; at least one heater; and capillary channels configured for movement of the aerosol precursor composition to the at least one heater; a reservoir for storing a liquid aerosol precursor composition; at least one heater; and capillary channels configured for movement of the aerosol precursor composition to the at least one heater; characterized in that the microfluidic vaporizer comprises a cover configured to overlie the substrate and that includes microperforations therein so that vapor passes therethrough but liquid is prevented from passing therethrough.
Manhole cover with a cover and a frame, wherein the cover can be laid in a water-tight manner on the frame, characterised in that the manhole cover comprises a pressure relief device and in that the cover comprises at least one through-hole in which the pressure relief device is arranged.
A method for operating an internal combustion engine including at least one cylinder with longitudinally-separated exhaust and intake ports (226, 224), and a pair of pistons disposed in opposition to one another in a bore of the cylinder, comprising: admitting charge air into the bore through the intake port as the pistons move from respective bottom dead center positions in the bore, imposing a swirling motion on the charge air admitted into the bore, characterized by; causing a tumbling motion in the charge air between opposing end surfaces of the pistons as the pistons move toward respective top dead center positions in the bore, moving opposing bowls on the opposing end surfaces of the pistons together to define a combustion chamber having the shape of an elongated ellipsoidal cylinder, and side-injecting opposing spray patterns of fuel into the charge air between the opposing end surfaces. admitting charge air into the bore through the intake port as the pistons move from respective bottom dead center positions in the bore, imposing a swirling motion on the charge air admitted into the bore, causing a tumbling motion in the charge air between opposing end surfaces of the pistons as the pistons move toward respective top dead center positions in the bore, moving opposing bowls on the opposing end surfaces of the pistons together to define a combustion chamber having the shape of an elongated ellipsoidal cylinder, and side-injecting opposing spray patterns of fuel into the charge air between the opposing end surfaces.
A process for scheduling the allocation of resources to applications over a set of time slots in response to requests for use of the resources by the applications, the requests including: inelastic requests, each specified for performance at a specific time slot, and elastic requests, each specified for performance within a predetermined time range defining limits of when a resource may be allocated, wherein the resources are capable of allocation in predetermined blocks, characterised in that: for the set of time slots a baseline resource capacity is determined, being the minimum block of capacity that can be allocated to meet the resource capacity requirements of the inelastic requests specified for performance within that set of time slots, and the allocation of resources to applications for performance of the elastic requests is scheduled such that the total resource capacity allocated is maintained at least as great as the baseline resource capacity. inelastic requests, each specified for performance at a specific time slot, and elastic requests, each specified for performance within a predetermined time range defining limits of when a resource may be allocated, wherein the resources are capable of allocation in predetermined blocks, characterised in that: for the set of time slots a baseline resource capacity is determined, being the minimum block of capacity that can be allocated to meet the resource capacity requirements of the inelastic requests specified for performance within that set of time slots, and the allocation of resources to applications for performance of the elastic requests is scheduled such that the total resource capacity allocated is maintained at least as great as the baseline resource capacity.
Non-therapeutic use of an effective quantity of spirulina and/or of spirulina extract(s) for improving the bioavailability of orally administered curcumin in animals, in particular horses, pigs, dogs and cats or humans and wherein the curcumin is used as a food supplement in the field of animal or human nutrition.
A method for moving a shelf of a plurality of movable (moving) shelves of a shelving unit in a direction of movement, wherein the shelf extends perpendicularly to the direction of travel, wherein the shelf, as considered in the direction of extent, has at least two drive wheels (200; 204) on opposite sides of the shelf and to distance sensors (208; 209) on opposite sides of the shelf, wherein each distance sensor is paired with a drive wheel, wherein the method comprises the following steps: a) driving the drive wheels (200; 204) with a maximum speed, b) by means of each of the distance sensors (208; 209), determining the distance of the shelf in the region of the sensor position from a shelf arranged ahead of the shelf, c) determining the drive wheel of which the sensor has determined the greatest distance from the shelf arranged ahead as master drive wheel, and determining the drive wheel of which the sensor has determined the smallest distance from the shelf arranged ahead as slave drive wheel, d) reducing the speed exclusively of the slave drive wheel to a target speed, wherein the target speed is provided by multiplying the speed of the master drive wheel by a reduction factor, wherein the reduction factor is determined as one, minus the absolute value of the standardised difference of the distances determined by the sensors, e) repeating steps b)-d) in a cyclical manner, wherein the difference is standardised by a maximum allowed difference of the distances determined by the sensors (208; 209). a) driving the drive wheels (200; 204) with a maximum speed, b) by means of each of the distance sensors (208; 209), determining the distance of the shelf in the region of the sensor position from a shelf arranged ahead of the shelf, c) determining the drive wheel of which the sensor has determined the greatest distance from the shelf arranged ahead as master drive wheel, and determining the drive wheel of which the sensor has determined the smallest distance from the shelf arranged ahead as slave drive wheel, d) reducing the speed exclusively of the slave drive wheel to a target speed, wherein the target speed is provided by multiplying the speed of the master drive wheel by a reduction factor, wherein the reduction factor is determined as one, minus the absolute value of the standardised difference of the distances determined by the sensors, e) repeating steps b)-d) in a cyclical manner,
A shield connector arrangement comprising: a shield connector having a housing with an insertion hole, a shielded cable accommodated within said insertion hole, said shielded cable has a shielding conductor being connected to a shield terminal wherein the shield terminal is mounted to the housing and is in contact to a wall of a counterpart device for a ground connection between the shielding conductor and the counterpart device, wherein the shielded cable is completely guided through the wall of the counterpart device, characterised in that at least one locking element for tool-less fastening the shield connector to the counterpart device is provided on the housing and that the counterpart device has at least one counter locking element being engaged to the at least one locking element of the housing of the shield connector. a shield connector having a housing with an insertion hole, a shielded cable accommodated within said insertion hole, said shielded cable has a shielding conductor being connected to a shield terminal wherein the shield terminal is mounted to the housing and is in contact to a wall of a counterpart device for a ground connection between the shielding conductor and the counterpart device, wherein the shielded cable is completely guided through the wall of the counterpart device, characterised in that at least one locking element for tool-less fastening the shield connector to the counterpart device is provided on the housing and that the counterpart device has at least one counter locking element being engaged to the at least one locking element of the housing of the shield connector.
A network controller for a mobile communication between a wireless mobile device and a network device (206a, 206b), the network controller including a TCP layer for communications with the network device (206a, 206b) and a current access point associated with the mobile device, wherein the network controller is configured to communicate with the network device and the access point via a cable network, and the network controller comprises: a first protocol layer configured to maintain a first virtual circuit between the network controller and the network device (206a, 206b); a second protocol layer configured to maintain a second virtual circuit between the network controller and the current access point; and a third protocol layer configured to bridge a communication between the first virtual circuit and the second virtual circuit through mapping, wherein the second protocol layer is configured to extract a first data segment encapsulated into a second data segment received via the second virtual circuit and pass it to the third protocol layer for transmission to the network device (206a, 206b), the first data segment comprising message data from the mobile device and a session number for identifying the network device (206a, 206b), wherein the third protocol layer is configured to extract the message data from the first data segment, re-assemble a message from the extracted message data, and map the assembled message to the first virtual circuit based on the session number that identifies a data format of the message data; and wherein the second protocol layer is further configured to receive data from the third protocol layer and process the received data for transmission to the current access point. a first protocol layer configured to maintain a first virtual circuit between the network controller and the network device (206a, 206b); a second protocol layer configured to maintain a second virtual circuit between the network controller and the current access point; and a third protocol layer configured to bridge a communication between the first virtual circuit and the second virtual circuit through mapping, wherein the second protocol layer is configured to extract a first data segment encapsulated into a second data segment received via the second virtual circuit and pass it to the third protocol layer for transmission to the network device (206a, 206b), the first data segment comprising message data from the mobile device and a session number for identifying the network device (206a, 206b), wherein the third protocol layer is configured to extract the message data from the first data segment, re-assemble a message from the extracted message data, and map the assembled message to the first virtual circuit based on the session number that identifies a data format of the message data; and wherein the second protocol layer is further configured to receive data from the third protocol layer and process the received data for transmission to the current access point.
A respiratory system comprising: a patient interface unit configured to permit either a negative pressure airflow or a positive pressure airflow to a patient; a negative pressure generating source for generating negative pressure airflow that flows through the patient interface unit; a positive pressure generating source for generating positive pressure airflow that flows through the patient interface unit; and a first valve fluidly connected to said pressure generating sources for selectively blocking and/or unblocking airflow from either of the said pressure generating sources, wherein said first valve at a first position, is configured to block the negative pressure airflow at a patient interface and allows the positive pressure airflow to enter the patient interface, said first valve at a second position, configured to block the positive pressure airflow at the patient interface and allows the negative pressure airflow to enter the patient interface, said first valve at a third position, with a variable displacement from said third position configured to impart oscillations on top of the positive pressure airflow, said first valve at a fourth position, with a variable displacement from said fourth position configured to impart oscillations on top of the negative pressure airflow wherein said pressure generating sources are connected to the patient interface unit by a Y-shaped tube, and wherein the first valve is a rotary valve comprising a thin disc having at least two or more openings of equal or varying sizes.
A driving assistance apparatus that assists a vehicle, including an engine, in traveling, comprising: an assistance control unit determining an on/off state of the engine; and a drive control unit controlling driving of the engine on the basis of the on/off state determined by the assistance control unit, wherein the assistance control unit acquires a driver requesting power, and switches the engine from the on state to the off state when the driver requesting power is lower than or equal to a threshold, and the assistance control unit determines whether the vehicle is required to stop in the traveling direction at a target stopping position, characterized in that the assistance control unit sets the threshold for setting the engine to the off state to a higher value such that the engine is more easily switched from the on state to the off state when: the assistance control unit determines that the vehicle is required to stop in the traveling direction at the target stopping position, and it is timing at which the vehicle is able to reach the target stopping position in a state where driving force is not generated. an assistance control unit determining an on/off state of the engine; and a drive control unit controlling driving of the engine on the basis of the on/off state determined by the assistance control unit, wherein the assistance control unit acquires a driver requesting power, and switches the engine from the on state to the off state when the driver requesting power is lower than or equal to a threshold, and the assistance control unit determines whether the vehicle is required to stop in the traveling direction at a target stopping position, characterized in that the assistance control unit sets the threshold for setting the engine to the off state to a higher value such that the engine is more easily switched from the on state to the off state when: the assistance control unit determines that the vehicle is required to stop in the traveling direction at the target stopping position, and it is timing at which the vehicle is able to reach the target stopping position in a state where driving force is not generated. the assistance control unit determines that the vehicle is required to stop in the traveling direction at the target stopping position, and it is timing at which the vehicle is able to reach the target stopping position in a state where driving force is not generated.
An auto changer spindle mounting assembly comprising: a collar with a collar body and a collar arm, the collar body includes a first side and a second side, the collar body defines a collar opening therethrough to create a passage between the first side of the collar body with the second side of the collar body; a tubular collar sleeve with a side wall the tubular collar sleeve with a first end formed with an outer diameter sized to be larger than the collar opening, and the tubular collar sleeve with a second end sized formed with an outer diameter sized to fit through the collar opening with a portion of the second end of the tubular collar sleeve protruding from the second side of the collar opening; a lock ring formed with an inner diameter sized to fit around the second end of the tubular collar sleeve protruding from the second side of the collar opening, the auto changer spindle mounting assembly being characterised in that the side wall of the tubular collar sleeve comprise athreaded opening therethrough and in that the auto spindle mounting assembly further comprises a threaded plug sized to thread into the threaded opening. a collar with a collar body and a collar arm, the collar body includes a first side and a second side, the collar body defines a collar opening therethrough to create a passage between the first side of the collar body with the second side of the collar body; a tubular collar sleeve with a side wall the tubular collar sleeve with a first end formed with an outer diameter sized to be larger than the collar opening, and the tubular collar sleeve with a second end sized formed with an outer diameter sized to fit through the collar opening with a portion of the second end of the tubular collar sleeve protruding from the second side of the collar opening; a lock ring formed with an inner diameter sized to fit around the second end of the tubular collar sleeve protruding from the second side of the collar opening, the auto changer spindle mounting assembly being characterised in that the side wall of the tubular collar sleeve comprise athreaded opening therethrough and in that the auto spindle mounting assembly further comprises a threaded plug sized to thread into the threaded opening.
A three-dimensional image processing device comprising: derivative value calculating means for calculating a second order partial derivative matrix and first order partial derivative values of a pixel value at each pixel position in an image; and evaluating means for calculating an evaluation value of a likelihood of being a line-like structure at the pixel position based on characteristics of the line-like structure that two of the three eigenvalues obtained by applying eigenvalue decomposition to the second order partial derivative matrix have large values and one of the three eigenvalues has a small value, wherein the evaluating means is adapted to change the evaluation value based on a magnitude of the first order partial derivative value, characterized in that the evaluating means is adapted to correct the eigenvalue of the second order partial derivative matrix having the largest absolute value, depending on magnitudes of the first order partial derivative values corresponding to the directions of the eigenvectors of the second order partial derivative matrix, and is adapted to calculate the evaluation value based on the corrected value of the eigenvalue having the largest absolute value. derivative value calculating means for calculating a second order partial derivative matrix and first order partial derivative values of a pixel value at each pixel position in an image; and evaluating means for calculating an evaluation value of a likelihood of being a line-like structure at the pixel position based on characteristics of the line-like structure that two of the three eigenvalues obtained by applying eigenvalue decomposition to the second order partial derivative matrix have large values and one of the three eigenvalues has a small value, wherein the evaluating means is adapted to change the evaluation value based on a magnitude of the first order partial derivative value, characterized in that the evaluating means is adapted to correct the eigenvalue of the second order partial derivative matrix having the largest absolute value, depending on magnitudes of the first order partial derivative values corresponding to the directions of the eigenvectors of the second order partial derivative matrix, and is adapted to calculate the evaluation value based on the corrected value of the eigenvalue having the largest absolute value.
Explosive or fuel containing a mixture of at least two different bistetrazolyltriazenates, wherein the mixture contains at least one bistetrazolyltriazenate, which is a guanidine salt, a guanylurea salt, a melamine salt, a salt of an alkali metal or an alkaline earth metal or an Na, K, Mg, Ca, Sr or Ba salt, and/or at least one bistetrazolyltriazenate of a transition metal, a monoaminoguanidine, diaminoguanidine or triaminoguanidine salt, an ammonium salt or a hydrazine salt and/or at least one bistetrazolyltriazenate of a metal.
A cord-rubber composite comprising: a cord array of parallel steel cords, wherein the steel cords are composed of a core of N filaments and a sheath of M filaments which are laid helically in a layer around the core, wherein the numbers N and M are set to be 2 to 10, characterized in that an unvulcanized topping rubber coating the cord array and having a complex elastic modulus E* of not less than 5 MPa and not greater than 20 MPa after vulcanization, wherein the complex elastic modulus E* is measured at 30 degrees Celsius, the cord array having a surface area parameter S (mm) of not less than 80 mm and not greater than 300 mm, wherein the surface area parameter S (mm) is defined by the following expression: S = D × Pi × E, wherein E is a cord count of the steel cords per 5 cm width of the cord-rubber composite in a direction orthogonal to longitudinal directions of the steel cords, and D is an average outer diameter (mm) of the steel cords per the 5 cm width. a cord array of parallel steel cords, wherein the steel cords are composed of a core of N filaments and a sheath of M filaments which are laid helically in a layer around the core, wherein the numbers N and M are set to be 2 to 10, characterized in that an unvulcanized topping rubber coating the cord array and having a complex elastic modulus E* of not less than 5 MPa and not greater than 20 MPa after vulcanization, wherein the complex elastic modulus E* is measured at 30 degrees Celsius, the cord array having a surface area parameter S (mm) of not less than 80 mm and not greater than 300 mm, wherein the surface area parameter S (mm) is defined by the following expression: S = D × Pi × E, wherein E is a cord count of the steel cords per 5 cm width of the cord-rubber composite in a direction orthogonal to longitudinal directions of the steel cords, and D is an average outer diameter (mm) of the steel cords per the 5 cm width. E is a cord count of the steel cords per 5 cm width of the cord-rubber composite in a direction orthogonal to longitudinal directions of the steel cords, and D is an average outer diameter (mm) of the steel cords per the 5 cm width.