mhurhangee/ep-ind-claims huggingface dataset:
A method for testing a device for a fluid leak, the method comprising: a. connecting the device to a pump connected to a reservoir of fluid, wherein the device has a fluid seal; b. connecting a control device to the pump; c. simultaneously pumping the fluid into the device and the control device; d. detecting a pressure of the fluid flowing to the control device, forming a control response; e. detecting a pressure of the fluid flowing to the device, forming a test response; f. determining a difference between the test response and the control response, forming a pressure difference, characterised in that, that the method is additionally comprising steps of; g. adjusting a volume of the fluid in the control device by a known volume; h. determining a drop in the pressure difference associated with the known volume; i. forming a leak test ratio by dividing the known volume by the drop in the pressure difference; and j. determining if the test response imitates the control response by determining if a change in the pressure difference occurs, wherein: (i) if imitation is determined, providing a determination that no leak in the fluid seal of the device is present; or (ii) if imitation is not determined, determining a leak volume by multiplying a pressure drop associated with the change in the pressure difference by the leak test ratio, and providing a determination that a leak in the fluid seal of the device is present. a. connecting the device to a pump connected to a reservoir of fluid, wherein the device has a fluid seal; b. connecting a control device to the pump; c. simultaneously pumping the fluid into the device and the control device; d. detecting a pressure of the fluid flowing to the control device, forming a control response; e. detecting a pressure of the fluid flowing to the device, forming a test response; f. determining a difference between the test response and the control response, forming a pressure difference, characterised in that, that the method is additionally comprising steps of; g. adjusting a volume of the fluid in the control device by a known volume; h. determining a drop in the pressure difference associated with the known volume; i. forming a leak test ratio by dividing the known volume by the drop in the pressure difference; and j. determining if the test response imitates the control response by determining if a change in the pressure difference occurs, wherein: (i) if imitation is determined, providing a determination that no leak in the fluid seal of the device is present; or (ii) if imitation is not determined, determining a leak volume by multiplying a pressure drop associated with the change in the pressure difference by the leak test ratio, and providing a determination that a leak in the fluid seal of the device is present. (i) if imitation is determined, providing a determination that no leak in the fluid seal of the device is present; or (ii) if imitation is not determined, determining a leak volume by multiplying a pressure drop associated with the change in the pressure difference by the leak test ratio, and providing a determination that a leak in the fluid seal of the device is present.
An input device for interfacing with a game console to interact with a computer program of the game console, the input device comprising: a controller having a handle; a spherical object connected to a first end of the handle; a circuit for identifying a position of the handle, the circuit further including communication logic to communicate the identified position to the game console during interaction with the computer program; a sensor to detect when the spherical object is in actual contact with a surface; and control inputs connected to the handle, the control inputs receiving input commands that are exchanged with the game console to further interact with the computer program; wherein when the sensor detects that the spherical object is placed in contact with a surface when held by the handle, the input device enters a joystick mode in which the circuit is operable to identify the relative motion of the handle about a pivot point being the point of contact between the spherical object and the surface and to communicate the identified relative motion of the handle as the handle is pivoted on the surface; and wherein the input device enters a non-joystick mode in response to a detection by the sensor that the spherical object is not in contact with a surface, translation and rotation of the input device being detected in the non-joystick mode. a controller having a handle; a spherical object connected to a first end of the handle; a circuit for identifying a position of the handle, the circuit further including communication logic to communicate the identified position to the game console during interaction with the computer program; a sensor to detect when the spherical object is in actual contact with a surface; and control inputs connected to the handle, the control inputs receiving input commands that are exchanged with the game console to further interact with the computer program;
A control system configured for controlling one or more blood gas values in blood processed by an oxygenator of an extracorporeal perfusion system, wherein the oxygenator is configured to generate arterial blood by exposing venous blood to oxygen from an oxygenation gas supply, the control system comprising: a monitoring arrangement to determine a level of the one or more blood gas values in the arterial blood, and a controller responsive to the monitoring arrangement, the controller configured to control parameters of the oxygenation gas supply to the oxygenator, to adjust one or more of the blood gas values toward a pre-determined level, and wherein the controller comprises a configuration permitting it to alter the composition and the flow rate of the oxygenation gas supplied to the oxygenator, characterized in that the controller is configured to simultaneously control the partial pressure of oxygen in the arterial blood and the partial pressure of carbon dioxide in the arterial blood by setting the flow rate of the oxygenation gas supply to a level suitable for adjusting the partial pressure of carbon dioxide, and at the flow rate, setting the fraction of oxygen in the oxygenation gas supply to a level suitable for adjusting the partial pressure of oxygen. a monitoring arrangement to determine a level of the one or more blood gas values in the arterial blood, and a controller responsive to the monitoring arrangement, the controller configured to control parameters of the oxygenation gas supply to the oxygenator, to adjust one or more of the blood gas values toward a pre-determined level, and wherein the controller comprises a configuration permitting it to alter the composition and the flow rate of the oxygenation gas supplied to the oxygenator, characterized in that the controller is configured to simultaneously control the partial pressure of oxygen in the arterial blood and the partial pressure of carbon dioxide in the arterial blood by setting the flow rate of the oxygenation gas supply to a level suitable for adjusting the partial pressure of carbon dioxide, and at the flow rate, setting the fraction of oxygen in the oxygenation gas supply to a level suitable for adjusting the partial pressure of oxygen.
A resist underlayer film material for use in a multilayer resist method, comprising: one or more compounds shown by the following general formula; and an organic solvent, wherein W represents an organic group with a valency of "n" having 2 to 50 carbon atoms; X represents either of terminal group structures shown by the following general formula and the following general formula; when a ratio of the structure of the following general formula to the structure of the following general formula each constituting the X is "a" to "b", "a" and "b" satisfy the relations a + b = 1.0, 0.70 ≤ a ≤ 0.99, and 0.01 ≤ b ≤ 0.30; and "n" represents an integer of 1 to 10, wherein a broken line represents a bonding arm; Z represents an aromatic group with a valency of (k+1) having 6 to 20 carbon atoms; A represents a single bond or -O-(CH 2) p -; "k" represents an integer of 1 to 5; and "p" represents an integer of 1 to 10, wherein a broken line represents a bonding arm; L represents a single bond or -(CH 2) r -; "1" represents 2 or 3; and "r" represents an integer of 1 to 5. one or more compounds shown by the following general formula; and an organic solvent, wherein W represents an organic group with a valency of "n" having 2 to 50 carbon atoms; X represents either of terminal group structures shown by the following general formula and the following general formula; when a ratio of the structure of the following general formula to the structure of the following general formula each constituting the X is "a" to "b", "a" and "b" satisfy the relations a + b = 1.0, 0.70 ≤ a ≤ 0.99, and 0.01 ≤ b ≤ 0.30; and "n" represents an integer of 1 to 10, wherein a broken line represents a bonding arm; Z represents an aromatic group with a valency of (k+1) having 6 to 20 carbon atoms; A represents a single bond or -O-(CH 2) p -; "k" represents an integer of 1 to 5; and "p" represents an integer of 1 to 10, wherein a broken line represents a bonding arm; L represents a single bond or -(CH 2) r -; "1" represents 2 or 3; and "r" represents an integer of 1 to 5. wherein W represents an organic group with a valency of "n" having 2 to 50 carbon atoms; X represents either of terminal group structures shown by the following general formula and the following general formula; when a ratio of the structure of the following general formula to the structure of the following general formula each constituting the X is "a" to "b", "a" and "b" satisfy the relations a + b = 1.0, 0.70 ≤ a ≤ 0.99, and 0.01 ≤ b ≤ 0.30; and "n" represents an integer of 1 to 10, wherein a broken line represents a bonding arm; Z represents an aromatic group with a valency of (k+1) having 6 to 20 carbon atoms; A represents a single bond or -O-(CH 2) p -; "k" represents an integer of 1 to 5; and "p" represents an integer of 1 to 10, wherein a broken line represents a bonding arm; L represents a single bond or -(CH 2) r -; "1" represents 2 or 3; and "r" represents an integer of 1 to 5.
A head fixation device for use in a medical procedure, wherein the head fixation device comprises: a. a pair of arms defining a skull clamp, wherein each of the arms comprise a cross-sectional profile that defines a rail (118, 138); b. at least one clamp, wherein the clamp comprises at least one movable jaw and at least one fixed jaw, wherein the clamp is configured to receive one or more accessories for use during the medical procedure, and c. a stabilizing feature configured to contact a patient's head, wherein the rail (118, 138) comprises at least one protruding member extending along its length and wherein the clamp is securable to the rail (118, 138) by grasping the at least one protruding member, characterized in that the at least one movable jaw is configured to translate linearly to selectively secure the clamp to the rail (118, 138), wherein the void space defined by the jaws (212, 214) matches the profile, and wherein the clamp is configured to move toward an outer surface (120, 140) of the profile as the at least one movable jaw translates linearly to selectively secure the clamp to the rail (118, 138). a. a pair of arms defining a skull clamp, wherein each of the arms comprise a cross-sectional profile that defines a rail (118, 138); b. at least one clamp, wherein the clamp comprises at least one movable jaw and at least one fixed jaw, wherein the clamp is configured to receive one or more accessories for use during the medical procedure, and c. a stabilizing feature configured to contact a patient's head,
Method for data transmission in a cellular network to a wireless device, the cellular network supporting long term evolution standard, the wireless device being assigned to a group of low capability devices, wherein the cellular network has knowledge about the assignment of the wireless device to the group of low capability devices, the cellular network further comprising a plurality of base nodes, the plurality of base nodes comprising an active base node, which is the base node the wireless device is currently associated to, wherein a data connection with the wireless device is established, the active base node being configured to downlink communicate on a frequency band comprising a plurality of frequency blocks (2; 21) comprising a plurality of subcarriers, characterized in that the method comprises: - the active base node transmitting data to the wireless device in a frequency block (2; 21), being during a scheduling period the only frequency block (2; 21) providing data to said wireless device, - submitting the data dedicated for the wireless device in one first subframe of the frequency block (2; 21), followed by at least one second subframe without data dedicated to the wireless device, wherein the first subframe comprises at least two slots, a first slot allocated to said wireless device and further slots allocated to at least a second wireless device being assigned to the group of low capability devices. the wireless device being assigned to a group of low capability devices, wherein the cellular network has knowledge about the assignment of the wireless device to the group of low capability devices, the cellular network further comprising a plurality of base nodes, the plurality of base nodes comprising an active base node, which is the base node the wireless device is currently associated to, wherein a data connection with the wireless device is established, the active base node being configured to downlink communicate on a frequency band comprising a plurality of frequency blocks (2; 21) comprising a plurality of subcarriers, characterized in that the method comprises: - the active base node transmitting data to the wireless device in a frequency block (2; 21), being during a scheduling period the only frequency block (2; 21) providing data to said wireless device, - submitting the data dedicated for the wireless device in one first subframe of the frequency block (2; 21), followed by at least one second subframe without data dedicated to the wireless device, - the active base node transmitting data to the wireless device in a frequency block (2; 21), being during a scheduling period the only frequency block (2; 21) providing data to said wireless device, - submitting the data dedicated for the wireless device in one first subframe of the frequency block (2; 21), followed by at least one second subframe without data dedicated to the wireless device, wherein the first subframe comprises at least two slots, a first slot allocated to said wireless device and further slots allocated to at least a second wireless device being assigned to the group of low capability devices.
Permanent magnet rotor for an electric motor comprising a bell housing made from a magnetic material and comprising an annular wall and at least one permanent magnet fixed to the internal annular wall by adhesive means sited between the annular wall and a rear face of the permanent magnet, wherein the rear face of the permanent magnet has a fixing zone defined by a radius of curvature (R', R2) which is greater than the radius of curvature of the annular wall, said fixing zone thus contributing to forming a cavity for accepting said adhesive means, the rear face being configured in such a way that the fixing zone is bordered laterally by two contact zones for contact with the annular wall, said adhesive means being contained in the fixing zone, and wherein the fixing zone forms a flat, characterized in that the contact zones delimit surfaces of which the radius of curvature is identical to that of the annular wall.
A process comprising: a. converting natural gas in a first reaction zone under first reaction conditions to produce a first gas stream comprising hydrogen and methane and a first solid carbon product; b. separating at least a portion of the first solid carbon product from the first gas stream; and c. converting at least a portion of the first gas stream in a second reaction zone under second reaction conditions to produce a second gas stream and a second solid carbon product, wherein the second reaction zone comprises a molten metal and/or molten salt. a. converting natural gas in a first reaction zone under first reaction conditions to produce a first gas stream comprising hydrogen and methane and a first solid carbon product; b. separating at least a portion of the first solid carbon product from the first gas stream; and c. converting at least a portion of the first gas stream in a second reaction zone under second reaction conditions to produce a second gas stream and a second solid carbon product, wherein the second reaction zone comprises a molten metal and/or molten salt.
A mould for making, by use of ceramic powder, shower trays with a non-planar cross-section, preferably, comprising: - a lower half-mould comprising: - a rigid support having at least one insertion seat; - a deformable membrane resting on the rigid support and designed to define a surface for depositing a layer of ceramic powder; - at least one plug slidable in the insertion seat, interposed between said rigid support and said deformable membrane and movable perpendicularly to said depositing surface; Wherein said lower half-mould is configured to adopt a pressing configuration in which said plug is inserted completely in said insertion seat and said depositing surface has a planar configuration and a depositing configuration wherein said plug is at least partly extracted from the insertion seat locally lifting said depositing surface in such a way as to deform the depositing surface according to a non-planar configuration; - an upper half-mould having a pressing surface having a shape which is specular to the shape adopted by the depositing surface when the lower half-mould is in the depositing configuration and designed to abut against the depositing surface when the lower half-mould is in the pressing configuration; said mould being characterized in that, when the depositing surface is deformed by the pushing of said plug, said depositing surface assumes a truncated cone or truncated pyramid shape wherein all the non-planar zones which are created converge towards a point where the plug is pushing, said point being the point where the ceramic powder adopts the minimum thickness and defining a seats for a drainage hole for draining water from said shower tray. - a lower half-mould comprising: - a rigid support having at least one insertion seat; - a deformable membrane resting on the rigid support and designed to define a surface for depositing a layer of ceramic powder; - at least one plug slidable in the insertion seat, interposed between said rigid support and said deformable membrane and movable perpendicularly to said depositing surface; - an upper half-mould having a pressing surface having a shape which is specular to the shape adopted by the depositing surface when the lower half-mould is in the depositing configuration and designed to abut against the depositing surface when the lower half-mould is in the pressing configuration;
A control method of an electric rotating machine for a vehicle, the electric rotating machine comprising: a Randell-type multipolar rotator core having a field winding; a stator having an armature winding; field current control means for controlling a field current supplied from a direct-current power source to said field winding; and a power converter for converting a power of said direct-current power source into an alternating-current power and supplying the electric power to said armature winding, wherein when said field current control means starts to supply a current to said field winding for starting an internal combustion engine, said power converter supplies a power to said armature winding so that a magnetic flux in a direction opposite to a field flux of said field winding is generated simultaneously with or immediately before starting the supply of current to the field winding. a Randell-type multipolar rotator core having a field winding; a stator having an armature winding; field current control means for controlling a field current supplied from a direct-current power source to said field winding; and a power converter for converting a power of said direct-current power source into an alternating-current power and supplying the electric power to said armature winding, wherein when said field current control means starts to supply a current to said field winding for starting an internal combustion engine, said power converter supplies a power to said armature winding so that a magnetic flux in a direction opposite to a field flux of said field winding is generated simultaneously with or immediately before starting the supply of current to the field winding.
A configurable flooring module for use in a raised-floor controlled-fluid-flow system, the flooring module comprising: a raised floor support surface and an elevation structure configured to hold the raised floor support surface in an elevated position; a first wall of the elevation structure having a first wall aperture, and a second wall of the elevation structure having a second wall aperture; the first wall providing a side of a plenum and the second wall providing another side of a plenum, which plenum, when in use, provides a fluid connection between the first wall aperture and the second wall aperture; and an actuator, a shutter, and a remote signal receiver; wherein at least the first wall aperture is configured to be opened and closed by the actuator moving the shutter in response to a remote signal received by the remote signal receiver. a raised floor support surface and an elevation structure configured to hold the raised floor support surface in an elevated position; a first wall of the elevation structure having a first wall aperture, and a second wall of the elevation structure having a second wall aperture; the first wall providing a side of a plenum and the second wall providing another side of a plenum, which plenum, when in use, provides a fluid connection between the first wall aperture and the second wall aperture; and an actuator, a shutter, and a remote signal receiver; wherein at least the first wall aperture is configured to be opened and closed by the actuator moving the shutter in response to a remote signal received by the remote signal receiver.
A partially automated manufacturing cell, comprising: a robot; a first workstation; a second workstation; and a third workstation; wherein said workstations (14, 16, 18) are arranged around said robot; and said robot is configured to supply first items to said first workstation, second items to said second workstation and third items to said third workstation; characterized in that said first workstation comprises a first rack for a plurality of first storage bins and wherein said robot is configured to supply said first storage bins containing said first items to said first rack, or to supply said first items to said first storage bins in said first rack. a robot; a first workstation; a second workstation; and a third workstation; wherein said workstations (14, 16, 18) are arranged around said robot; and said robot is configured to supply first items to said first workstation, second items to said second workstation and third items to said third workstation; characterized in that said first workstation comprises a first rack for a plurality of first storage bins and wherein said robot is configured to supply said first storage bins containing said first items to said first rack, or to supply said first items to said first storage bins in said first rack.