mhurhangee/patent-ind-claim-en huggingface dataset:
A plant growing system comprising: a roller assembly for rolling engagement with an upper track ; a support member coupled to the roller assembly , the support member having a first side in which an indentation is formed, and a second side opposite the first side ; a first growing panel suspended from the first side of the support member ; a second growing panel suspended from the second side of the support member ; and a supply tube supported by the support member ; wherein each of the first growing panel and the second growing panel comprises: a growing wall having a plurality of openings for receiving a plurality of plant receptacles: ; and a sidewall extending about at least a portion of a periphery of the growing wall; wherein the sidewall of the first growing panel; and the sidewall of the second growing panel abut each other to define an enclosure between the growing wall of the first growing panel; and the growing wall of the second growing panel; and wherein the supply tube comprises: a connection tube extending along an upper face of the support member , and a vertical tube, coupled to the connection tube , the vertical tube extending through the indentation formed in the first side of the support member into the enclosure . a roller assembly for rolling engagement with an upper track ; a support member coupled to the roller assembly , the support member having a first side in which an indentation is formed, and a second side opposite the first side ; a first growing panel suspended from the first side of the support member ; a second growing panel suspended from the second side of the support member ; and a supply tube supported by the support member ; wherein each of the first growing panel and the second growing panel comprises: a growing wall having a plurality of openings for receiving a plurality of plant receptacles: ; and a sidewall extending about at least a portion of a periphery of the growing wall; a growing wall having a plurality of openings for receiving a plurality of plant receptacles: ; and a sidewall extending about at least a portion of a periphery of the growing wall; wherein the sidewall of the first growing panel; and the sidewall of the second growing panel abut each other to define an enclosure between the growing wall of the first growing panel; and the growing wall of the second growing panel; and wherein the supply tube comprises: a connection tube extending along an upper face of the support member , and a vertical tube, coupled to the connection tube , the vertical tube extending through the indentation formed in the first side of the support member into the enclosure . a connection tube extending along an upper face of the support member , and a vertical tube, coupled to the connection tube , the vertical tube extending through the indentation formed in the first side of the support member into the enclosure .
A method comprising: receiving at a first network enabled device a bitstream encoded with video information from a second network enabled device; analyzing bitstream values corresponding to a video frame encoded in the received bitstream prior to generating the full video frame and determining visual characteristics of the video information from the analyzed bitstream values; and determining a modified video display for display at one or more network enabled devices in response to the determined visual characteristics; characterised in that determining the visual characteristics comprises at least one of: analyzing a chrominance value from the bitstream values, and determining a presence of a user based on the chrominance value; analyzing a luminance value from the bitstream values, and determining a light level of a location of the second network enabled device based upon the luminance value; analyzing a coefficient distribution from the bitstream values, and determining a focus level of the video data corresponding to the bitstream values based upon the coefficient distribution; and analyzing spatial density of information from the bitstream values and determining portions of the bitstream which exhibit relatively higher levels of detail. receiving at a first network enabled device a bitstream encoded with video information from a second network enabled device; analyzing bitstream values corresponding to a video frame encoded in the received bitstream prior to generating the full video frame and determining visual characteristics of the video information from the analyzed bitstream values; and determining a modified video display for display at one or more network enabled devices in response to the determined visual characteristics; characterised in that determining the visual characteristics comprises at least one of: analyzing a chrominance value from the bitstream values, and determining a presence of a user based on the chrominance value; analyzing a luminance value from the bitstream values, and determining a light level of a location of the second network enabled device based upon the luminance value; analyzing a coefficient distribution from the bitstream values, and determining a focus level of the video data corresponding to the bitstream values based upon the coefficient distribution; and analyzing spatial density of information from the bitstream values and determining portions of the bitstream which exhibit relatively higher levels of detail. analyzing a chrominance value from the bitstream values, and determining a presence of a user based on the chrominance value; analyzing a luminance value from the bitstream values, and determining a light level of a location of the second network enabled device based upon the luminance value; analyzing a coefficient distribution from the bitstream values, and determining a focus level of the video data corresponding to the bitstream values based upon the coefficient distribution; and analyzing spatial density of information from the bitstream values and determining portions of the bitstream which exhibit relatively higher levels of detail.
Door having a handle that cooperates with a push-rod fitting arranged in a fitting groove of a door leaf at least on a closing side, wherein the push-rod fitting is made up of displaceable connecting rods to which at least one locking bolt is assigned, wherein one of the connecting rods cooperates with a sealing fitting , extending at least over a width and/or height of the door leaf , such that, in one connecting rod position, a sealing profile is movable with its free sealing edge out of the sealing fitting and, in another connecting rod position, is movable into the sealing fitting , wherein, to move the sealing profile , means are provided that comprise coupling means arranged between the connecting rod and a rail supporting the sealing profile , and/or a gear mechanism and/or lever linkage or the like, characterized in that the sealing profile is held under the action of springs in the end position protruding beyond the sealing fitting , wherein the springs are arranged between the rail and a U profile , supporting the rail , of the sealing fitting , and the U-profile is fastened to the leaf frame .
A memory module operable with a server in a network , the memory module and the server forming a first node in a cluster of nodes in the network , the memory module comprising: persistent memory configured to provide data storage associated with the first node ; non-persistent memory configured to buffer data to or from the persistent memory ; a node control device operatively coupled to the persistent memory and the non- persistent memory ; a first interface for interfacing with the server; and a second interface for interfacing with the network ; wherein the node control device comprises control logic including physical memory access logic , cluster-wide address management logic , and network transfer logic ; wherein the physical memory access logic is configured to control accesses by the server of the persistent memory via the first interface ; wherein the cluster-wide address management logic is configured to translate between a local unified memory access, UMA, address space and a global UMA address space, the local UMA address space being accessible by applications running on the server, the global UMA address space being mapped to a physical UMA address space, the physical UMA address space being associated with data storages in the cluster of nodes; wherein the network transfer logic is configured to communicate with other nodes in the cluster of nodes command and data packets via the second interface ; and wherein the non-persistent memory is configured to buffer data flow between the persistent memory and the second interface for interfacing with the network . persistent memory configured to provide data storage associated with the first node ; non-persistent memory configured to buffer data to or from the persistent memory ; a node control device operatively coupled to the persistent memory and the non- persistent memory ; a first interface for interfacing with the server; and a second interface for interfacing with the network ; wherein the node control device comprises control logic including physical memory access logic , cluster-wide address management logic , and network transfer logic ; wherein the physical memory access logic is configured to control accesses by the server of the persistent memory via the first interface ; wherein the cluster-wide address management logic is configured to translate between a local unified memory access, UMA, address space and a global UMA address space, the local UMA address space being accessible by applications running on the server, the global UMA address space being mapped to a physical UMA address space, the physical UMA address space being associated with data storages in the cluster of nodes; wherein the network transfer logic is configured to communicate with other nodes in the cluster of nodes command and data packets via the second interface ; and wherein the non-persistent memory is configured to buffer data flow between the persistent memory and the second interface for interfacing with the network .
A method for detecting a rotation of at least part of the torso of an occupant seated on a seat of a vehicle, for example a motor vehicle, the method being implemented by a detection system comprising a seat , at least two interdigitated capacitive sensors (C1, C2, C3, C4, C5) carried by the seat, and a controller connected to the interdigitated capacitive sensors, said controller comprising a memory containing at least one variation range of capacitive values defined for at least one interdigitated capacitive sensor; the method comprising a step of triggering a measurement phase comprising periods during which capacitive values are measured by the capacitive sensors; the method further comprising the following steps implemented by the controller during the measurement phase: - determining , from the capacitive values measured, successively, a first stationary posture of the occupant during a first stationary period, a movement of at least a part of the occupant's torso, and a second stationary posture of the occupant during a second stationary period, - calculating , for each capacitive sensor (C1, C3, C4), the variation between a value representative of the capacitive values measured during the first stationary period and a value representative of the capacitive values measured during the second stationary period, - if the variation calculated for said at least two capacitive sensors is comprised in said capacitive values ranges defined for said capacitive sensors, generating a detection signal. - determining , from the capacitive values measured, successively, a first stationary posture of the occupant during a first stationary period, a movement of at least a part of the occupant's torso, and a second stationary posture of the occupant during a second stationary period, - calculating , for each capacitive sensor (C1, C3, C4), the variation between a value representative of the capacitive values measured during the first stationary period and a value representative of the capacitive values measured during the second stationary period, - if the variation calculated for said at least two capacitive sensors is comprised in said capacitive values ranges defined for said capacitive sensors, generating a detection signal.
A dual heater gas sensor module comprising: a housing having a front surface in which an inflow hole , through which air is introduced, is defined and a rear surface in which an outflow hole , through which air is discharged, is defined, the housing being configured to define an outer appearance of the dual heater gas sensor module ; a first gas sensor comprising a heater and configured to heat the air introduced through the front surface of the housing ; and a second gas sensor comprising a heater and configured to measure a specific gas contained in the air discharged through the rear surface of the housing , the dual heater gas sensor module being characterized in that it has a stepped structure such that a height difference between the first gas sensor and the second gas sensor is present, the first gas sensor is disposed in a first region and the second gas sensor is disposed in a second region , the first region has a height less than that of the second region , and the first region and the second region are connected to each other through an inclined surface (S), said first and second regions and said inclined surface (S) forming the stepped structure. a housing having a front surface in which an inflow hole , through which air is introduced, is defined and a rear surface in which an outflow hole , through which air is discharged, is defined, the housing being configured to define an outer appearance of the dual heater gas sensor module ; a first gas sensor comprising a heater and configured to heat the air introduced through the front surface of the housing ; and a second gas sensor comprising a heater and configured to measure a specific gas contained in the air discharged through the rear surface of the housing , the dual heater gas sensor module being characterized in that it has a stepped structure such that a height difference between the first gas sensor and the second gas sensor is present, the first gas sensor is disposed in a first region and the second gas sensor is disposed in a second region , the first region has a height less than that of the second region , and the first region and the second region are connected to each other through an inclined surface (S), said first and second regions and said inclined surface (S) forming the stepped structure.
A vehicle powertrain comprising a propulsion unit having a propulsion unit auxiliary brake , a transmission , driven wheels and a control unit arranged to control at least the transmission , where the propulsion unit is drivingly connected to the driven wheels via a clutch and different engagable gear ratios in the transmission, and where the control unit is arranged to perform the following steps when upshifting: - automatically disengage the clutch in order to disengage the propulsion unit from the transmission ; - upshift the transmission to a new gear compared to current gear ; - initiate a synchronization in order to decrease and synchronize rotational speed of the propulsion unit to rotational speed of the new gear to be engaged; characterized in that comprising a temperature sensor arranged to indicate temperature of the auxiliary brake and where the control unit is arranged to receive temperature information signals from the temperature sensor, and where the control unit is arranged to register that the synchronization cannot be performed by determining that braking performance from the auxiliary brake is unavailable when receiving temperature information signals from the temperature sensor indicating the temperature is below a first predetermined value and/or above a second predetermined value, and where further the control unit is arranged to perform the following steps: - if it is determined by the control unit that the synchronization cannot be performed by decreasing rotational speed of the propulsion unit by the control unit controlling the auxiliary brake to brake the rotational speed of the propulsion unit then, - automatically initiate a reengagement of the clutch in order to perform the synchronization. - automatically disengage the clutch in order to disengage the propulsion unit from the transmission ; - upshift the transmission to a new gear compared to current gear ; - initiate a synchronization in order to decrease and synchronize rotational speed of the propulsion unit to rotational speed of the new gear to be engaged; - if it is determined by the control unit that the synchronization cannot be performed by decreasing rotational speed of the propulsion unit by the control unit controlling the auxiliary brake to brake the rotational speed of the propulsion unit then, - automatically initiate a reengagement of the clutch in order to perform the synchronization.
A method of programming a selected non-volatile memory cell to store one of N possible values, where N is an integer greater than 2, the selected non-volatile memory cell comprising a floating gate, a control gate terminal, an erase gate terminal, and a source line terminal, the method comprising: performing a first programming process comprising multiple program-verify cycles, wherein a programming voltage of increasing magnitude is applied to a first terminal of the selected non-volatile memory cell in each program-verify cycle after the first program-verify cycle, characterized in that each program-verify cycle comprises: applying a first voltage to the first terminal comprising one of the erase gate terminal and the control gate terminal of the selected non-volatile memory cell; measuring a first current that results through the selected non-volatile memory cell; applying a second voltage to the first terminal of the selected non-volatile memory cell; measuring a second current that results through the selected non-volatile memory cell; determining a slope value based on the first voltage, the second voltage, the first current, and the second current; and determining a next programming voltage of the programming voltages of increasing magnitude for the next program-verify cycle based on the determined slope value. applying a first voltage to the first terminal comprising one of the erase gate terminal and the control gate terminal of the selected non-volatile memory cell; measuring a first current that results through the selected non-volatile memory cell; applying a second voltage to the first terminal of the selected non-volatile memory cell; measuring a second current that results through the selected non-volatile memory cell; determining a slope value based on the first voltage, the second voltage, the first current, and the second current; and determining a next programming voltage of the programming voltages of increasing magnitude for the next program-verify cycle based on the determined slope value.
Cooking oven comprising: - a cooking chamber wherein foodstuffs can be placed for being cooked, - a steam generator configured for producing steam and fluidly connected to said cooking chamber for releasing steam into the latter; - a cleaning system for cleaning said cooking chamber and said steam generator , comprising an additive drawer loadable with a washing/rinsing additive; wherein said additive drawer comprises: - a liquid inlet configured for taking a liquid therein, and is fluidly connected or connectable both to the inside of said cooking chamber and to the inside of said steam generator , wherein the liquid inlet is connected or connectable to a source of water external to the cooking oven , and wherein the cooking oven further comprises a first valve interposed between the liquid inlet and the source of water external to the cooking oven ; - a hollow housing , wherein a cleaning additive can be loaded, having a first end opened; - a cap configured being removably fixed to said hollow housing and removably closing said first end of the latter; characterized in that said cap comprises a support for an additive, configured for supporting an additive within said hollow housing when said cap is fixed to said hollow housing . - a cooking chamber wherein foodstuffs can be placed for being cooked, - a steam generator configured for producing steam and fluidly connected to said cooking chamber for releasing steam into the latter; - a cleaning system for cleaning said cooking chamber and said steam generator , comprising an additive drawer loadable with a washing/rinsing additive; - a liquid inlet configured for taking a liquid therein, and is fluidly connected or connectable both to the inside of said cooking chamber and to the inside of said steam generator , wherein the liquid inlet is connected or connectable to a source of water external to the cooking oven , and wherein the cooking oven further comprises a first valve interposed between the liquid inlet and the source of water external to the cooking oven ; - a hollow housing , wherein a cleaning additive can be loaded, having a first end opened; - a cap configured being removably fixed to said hollow housing and removably closing said first end of the latter;
A composition for replenishing at least one metal in an electrolytic bath, which composition contains: a solution of a sulfate or sulfamate of a first metal; a carbonate or oxide of the first metal dispersed within the solution; and a dispersing agent, characterized in that the composition has a metal concentration greater than 120 g/L. a solution of a sulfate or sulfamate of a first metal; a carbonate or oxide of the first metal dispersed within the solution; and a dispersing agent, characterized in that the composition has a metal concentration greater than 120 g/L.
Loading device for loading piece goods in layers onto a loading area , with a loading head , movable in at least one direction, in which a setting down element is arranged for picking up a layer of piece goods , over which a shunting element is arranged transverse to a horizontal shift direction , wherein the setting down element and the shunting element can be moved relatively to each other in the shift direction, and wherein piece goods loaded on the setting down element being in the loading position can be shunted relatively to each other by moving setting down element and shunting element from the setting down element , the loading head having a delivery opening for releasing a layer and the setting down element having a central support area , characterized in that the setting down element on long sides of the support area has adjoining side plates , which are diagonally angled upwards in relation to an extending plane of the central support area , whereby a series of piece goods placed on each side plate one behind another in the shift direction can be picked up.
A thermoplastic polyurethane composition comprising the reaction product of: a) a polyisocyanate component comprising at least one linear aliphatic diisocyanate; b) a polyol component consisting essentially of poly(tetramethylene ether glycol); and c) a chain extender component comprising at least one diol chain extender of the general formula HO-(CH 2 ) x -OH wherein x is an integer from 9 to 18. a) a polyisocyanate component comprising at least one linear aliphatic diisocyanate; b) a polyol component consisting essentially of poly(tetramethylene ether glycol); and c) a chain extender component comprising at least one diol chain extender of the general formula HO-(CH 2 ) x -OH wherein x is an integer from 9 to 18.