mhurhangee/ep-ind-claims huggingface dataset:
An automatic medication dispensing device including a medication storing case, a tray, and supplying means which temporarily holds medications accommodated in the medication storing case and then dispenses the medication to the tray based on a prescription instruction, wherein the medication storing case includes a rear gate, and the supplying means includes a head section which takes out a medication from the medication storing case and conveys the medication to the tray; said head section includes a mechanism which opens the rear gate, a flap, a pocket and a chute which functions as a path of a medication when the medication in the medication storing case is taken out into the head section, wherein when a medication in the medication storing case is taken out, the head section with the chute moves in a direction approaching the medication storing case, and the flap moves in a direction approaching the path for the medication in the chute, so that the flap moves in a direction in which the flap is pushed against the chute in an interlocking manner with the mechanism which opens the rear gate of the medication storing case located on the head section, so that the movement of the head section and the movement of the flap are done into synchronization with each other, so that the medication which is taken out from the medication storing case is temporarily stopped by the flap, and after the medication is temporarily stopped, the head section with the chute is moved to a direction returning to its original position and the flap is also moved to a direction returning to its original position, thereby releasing engagement between the medication and the flap to drop the medication into the pocket. the medication storing case includes a rear gate, and the supplying means includes a head section which takes out a medication from the medication storing case and conveys the medication to the tray; said head section includes a mechanism which opens the rear gate, a flap, a pocket and a chute which functions as a path of a medication when the medication in the medication storing case is taken out into the head section, wherein when a medication in the medication storing case is taken out, the head section with the chute moves in a direction approaching the medication storing case, and the flap moves in a direction approaching the path for the medication in the chute, so that the flap moves in a direction in which the flap is pushed against the chute in an interlocking manner with the mechanism which opens the rear gate of the medication storing case located on the head section, so that the movement of the head section and the movement of the flap are done into synchronization with each other, so that the medication which is taken out from the medication storing case is temporarily stopped by the flap, and after the medication is temporarily stopped, the head section with the chute is moved to a direction returning to its original position and the flap is also moved to a direction returning to its original position, thereby releasing engagement between the medication and the flap to drop the medication into the pocket.
A fluid delivery system, comprising: a spray gun; a first pressure sensor (42, 100) disposed on or near the spray gun and configured to monitor a first fluid; a second pressure sensor (42, 100) disposed on or near the spray gun and configured to monitor a second fluid; a first temperature sensor (42, 102) disposed on or near the spray gun and configured to monitor a first temperature of the first fluid; two pumps (12, 14) configured to provide hydrodynamic forces suitable for moving the first fluid and the second fluid into the spray gun; and a control system comprising a processor configured to: receive a first signal from the first pressure sensor (42, 100); receive a second signal from the second pressure sensor (42, 100); derive a pressure difference between the first and the second pressure sensor (42, 100) representative of a fluid pressure difference between the first fluid and the second fluid; and, control the two pumps (12, 14) based on the derived pressure difference to obtain a desired pressure difference at or near the spray gun, characterized in that the processor is configured to derive the pressure difference by including the first temperature in the derivation. a spray gun; a first pressure sensor (42, 100) disposed on or near the spray gun and configured to monitor a first fluid; a second pressure sensor (42, 100) disposed on or near the spray gun and configured to monitor a second fluid; a first temperature sensor (42, 102) disposed on or near the spray gun and configured to monitor a first temperature of the first fluid; two pumps (12, 14) configured to provide hydrodynamic forces suitable for moving the first fluid and the second fluid into the spray gun; and a control system comprising a processor configured to: receive a first signal from the first pressure sensor (42, 100); receive a second signal from the second pressure sensor (42, 100); derive a pressure difference between the first and the second pressure sensor (42, 100) representative of a fluid pressure difference between the first fluid and the second fluid; and, control the two pumps (12, 14) based on the derived pressure difference to obtain a desired pressure difference at or near the spray gun, characterized in that the processor is configured to derive the pressure difference by including the first temperature in the derivation. receive a first signal from the first pressure sensor (42, 100); receive a second signal from the second pressure sensor (42, 100); derive a pressure difference between the first and the second pressure sensor (42, 100) representative of a fluid pressure difference between the first fluid and the second fluid; and, control the two pumps (12, 14) based on the derived pressure difference to obtain a desired pressure difference at or near the spray gun, characterized in that the processor is configured to derive the pressure difference by including the first temperature in the derivation.
An optoelectronic sensor according to the principle of triangulation for detecting an object in a monitoring region, the sensor comprising a light transmitter for transmitting a light bundle and a spatially resolving light receiver offset from the light transmitter by a base distance for receiving the remitted light bundle remitted by the object, wherein a receiving optics and an optical element between light receiver and receiving optics are arranged in front of the light receiver, the optical element comprising a converging partial region and a diverging partial region and being arranged such that a remitted light bundle from an object in a near range of the monitoring region passes through the converging partial region and a remitted light bundle from an object in a far range of the monitoring region passes through the diverging partial region, characterized in that the optical element comprises a free-form surface (34a-b) with the converging partial region and the diverging partial region and thus, in a section along the base distance, has the basic shape of a wave, the optical element additionally comprises a converging curvature transverse to the wave and the free-form surface (34a-b) has local curvatures and/or local gradients of curvature and thus concentrates and/or mixes partial pupil bundles of the remitted light bundle.
A module for covering sections or elements requiring protection on paved surfaces, comprising - at least one fastening device for fastening the module to a milling device for removing material that is applied to paved surfaces, - at least one displaceable cover element for covering a section or element requiring protection, and - at least one displacement device for displacing the at least one cover element relative to the at least one fastening device, wherein the at least one displacement device is designed in such a way that at least one relative movement may be carried out between the at least one cover element and the at least one fastening device for a covering operation for a section or element requiring protection. - at least one fastening device for fastening the module to a milling device for removing material that is applied to paved surfaces, - at least one displaceable cover element for covering a section or element requiring protection, and - at least one displacement device for displacing the at least one cover element relative to the at least one fastening device,
An anti-CD 123 antibody-drug conjugate compound having the formula: or a pharmaceutically salt, solvate, or solvate of the salt; wherein the subscript n is 1 or 3; the subscript m is 2 to 5, particularly wherein m is 5, Ab is an anti-CD 123 intact antibody or antigen binding fragment thereof comprising a heavy chain variable region having the amino acid sequence set forth in SEQ ID NO:1; and a light chain variable region having the amino acid sequence set forth in SEQ ID NO:2; the subscript p is an integer from 1 to 4, particularly wherein p is 1 or 2. the subscript n is 1 or 3; the subscript m is 2 to 5, particularly wherein m is 5, Ab is an anti-CD 123 intact antibody or antigen binding fragment thereof comprising a heavy chain variable region having the amino acid sequence set forth in SEQ ID NO:1; and a light chain variable region having the amino acid sequence set forth in SEQ ID NO:2; the subscript p is an integer from 1 to 4, particularly wherein p is 1 or 2.
Energy supply apparatus, wherein the energy supply apparatus comprises at least a first module and a second module, wherein the energy supply apparatus comprises a first pressure vessel and can therefore be used underwater, characterized in that the first module comprises the first pressure vessel and in that the second module comprises a second pressure vessel, wherein the first module and the second module are chosen independently of each other from the group of air-independent power generators, wherein the group of air-independent power generators comprises a battery module, a fuel cell module, a Stirling motor, a Walter turbine and an air-independent Diesel module, wherein the apparatus comprises a framework, wherein the modules are connected to the framework, and wherein the first module is a battery module, wherein the second module is chosen from the group comprising a fuel cell module, a Stirling motor, a Walter turbine or an air-independent Diesel module.
A process for producing a product containing C 3 H 6 and C 2 H 4 by simultaneous conversion of MeOH and EtOH in an adiabatic, sequentially operated reactor containing a plurality of reaction stages, wherein each reaction stage is occupied with a fixed bed of a form-selective catalyst, in that a gaseous feed stream containing MeOH, DME, H 2 O and possibly one or more C 2 -, C 3 -, C 4 -, C 5 -, C 6 -, C 7 -, C 8 -olefins and -paraffins is charged at least to the first reaction stage of the reactor with temperatures of 300 to 600°C at pressures of 0.1 to 20 bar[a], characterized in that EtOH is fed into more than one of the reaction stages of the reactor.
A method of prognosing or of aiding prognosis of idiopathic pulmonary fibrosis in a patient comprising measuring in a biological sample obtained from the patient the expression of a gene, or expression of a protein encoded by the gene, wherein the gene is CXCL13, wherein an elevated expression level of the gene, or an elevated expression level of protein, is indicative of a prognosis for shortened survival compared to median survival and wherein a reduced expression level of the gene, or a reduced expression level of the protein, is indicative of a prognosis for increased survival compared to median survival.
A work machine, comprising: a work device; an actuator (18a, 18b, 18c) that drives the work device; an operation device for operating the actuator; and a controller that controls the actuator by any of two types of control that are first control to control the actuator (18a, 18b, 18c) on a basis of input to the operation device and second control to control the actuator (18a, 18b, 18c) on a basis of a distance between a predetermined design surface and the work device while the operation device is operated, characterized in that: the controller is configured to set a limiting value for a rate of change with time in a velocity of the actuator (18a, 18b, 18c) to a first rate of change in case that switchover between the two types of control is performed on a basis of input of a state switching signal and the velocity of the actuator changes from a velocity specified by the control before the switchover out of the two types of control to a velocity specified by the control after the switchover, the controller being further configured to change the rate of change with time in the velocity of the actuator (18a, 18b, 18c) from the first rate of change to a second rate of change greater than the first rate of change in a case in which input to the operation device changes since the switchover between the two types of control is performed on the basis of the input of the state switching signal until the velocity of the actuator changes to the velocity specified by the control after the switchover. a work device; an actuator (18a, 18b, 18c) that drives the work device; an operation device for operating the actuator; and a controller that controls the actuator by any of two types of control that are first control to control the actuator (18a, 18b, 18c) on a basis of input to the operation device and second control to control the actuator (18a, 18b, 18c) on a basis of a distance between a predetermined design surface and the work device while the operation device is operated, characterized in that: the controller is configured to set a limiting value for a rate of change with time in a velocity of the actuator (18a, 18b, 18c) to a first rate of change in case that switchover between the two types of control is performed on a basis of input of a state switching signal and the velocity of the actuator changes from a velocity specified by the control before the switchover out of the two types of control to a velocity specified by the control after the switchover, the controller being further configured to change the rate of change with time in the velocity of the actuator (18a, 18b, 18c) from the first rate of change to a second rate of change greater than the first rate of change in a case in which input to the operation device changes since the switchover between the two types of control is performed on the basis of the input of the state switching signal until the velocity of the actuator changes to the velocity specified by the control after the switchover.
Method for regulating a domestic firing installation with a metering device for metering the fuel into a combustion space, a primary feed air device for metering the feed air necessary for the combustion process, a secondary feed air device for the post-combustion of not fully oxidized combustion products, a temperature sensor for detecting the combustion temperature and an oxygen sensor for detecting the residual oxygen content in the flue gas, and an ignition device for igniting the fuel for the continuous combustion of solid, comminuted or pelletized fuels during various operating phases, namely an ignition phase during which fuel is ignited, a start-up phase in which the combustion process is stabilized and an operating phase with stationary combustion operation, wherein during the operating phase with stationary combustion operation the metering device is controlled in dependence on the heat requirement and the primary feed air device is controlled in dependence on the volume flow of fuel and the secondary feed air device is controlled in dependence on the residual oxygen content and possibly on the combustion temperature, wherein during the ignition phase the primary feed air device is operated in a constant manner, characterized in that during the ignition phase the secondary feed air device is operated in dependence on the combustion temperature and in dependence on the residual oxygen content and during the start-up phase the primary feed air device is controlled in dependence on the metering of fuel and the secondary feed air device is controlled in dependence on the residual oxygen content.
A method for transmitting common control information by a base station in a wireless communication system, the method comprising: determining whether the wireless communication system is a coexistence system, in which a legacy system and a new system, different from the legacy system, coexist; if the wireless communication system is a coexistence system, indicating information for coexistence of the legacy system and the new system, position and size information of a resource allocation zone where common control information for the new system can be transmitted, and information necessary for decoding of the resource allocation zone, through a first information element in a downlink subframe where resources are occupied for the legacy system; and transmitting the common control information of the new system in the resource allocation zone. determining whether the wireless communication system is a coexistence system, in which a legacy system and a new system, different from the legacy system, coexist; if the wireless communication system is a coexistence system, indicating information for coexistence of the legacy system and the new system, position and size information of a resource allocation zone where common control information for the new system can be transmitted, and information necessary for decoding of the resource allocation zone, through a first information element in a downlink subframe where resources are occupied for the legacy system; and transmitting the common control information of the new system in the resource allocation zone.
Device comprising: - a housing providing a bearing for receiving a rotating shaft, this bearing comprising a rolling member, this housing comprising an opening axial introduction of the rotating shaft through it towards the rolling member - at least one dynamic seal positioned axially inside the housing, the housing housing a washer axially disposed between said opening and the rolling member, the washer providing a shoulder against which said seal is suitable to take axially support for its axial positioning inside the casing to ensure the sealing of the bearing, characterized in that the said seal is at an axial distance upstream of the washer in a direction of insertion of the rotating shaft through the opening towards the inside of the bearing, and the washer is axially interposed at c contact between the running gear and a heel provided by the housing. - a housing providing a bearing for receiving a rotating shaft, this bearing comprising a rolling member, this housing comprising an opening axial introduction of the rotating shaft through it towards the rolling member - at least one dynamic seal positioned axially inside the housing,
Stator for an electronically commutated DC motor, comprising a plurality of stator poles that are configured as separate parts and consist of a pole core, pole shoes and yoke portions, the yoke portions of the stator poles having intermeshing profiles at which the yoke portions abut one another such that together they form a hollow-cylindrical yoke, the pole cores adjoining the yoke portions in a manner facing radially inwards, the individual stator poles are each provided with insulation and a winding, and the wound stator poles are held together by a retainer part and the retainer part is a metal clamping ring that is placed around the entire circumference of the hollow-cylindrical yoke in a pretensioned manner and clamp the stator poles together, characterised in that the clamping ring is formed in one piece having screw eyelets that adjoin an annular region and are bent down at right angles.
A self-propelled robotic work tool comprising: - a tool chassis, - a number of tool support members (61, 62, 63) attached to the tool chassis and being configured to abut against a ground surface in a first plane during operation of the work tool, - a number of snap fit assemblies (s1-s4), and - a tool body attachable to the tool chassis via the number of snap fit assemblies (s1-s4), wherein the number of snap fit assemblies (s1-s4) is configured to allow movement of at least a portion the tool body relative to the tool chassis between a lowered and a raised position in directions (d1, d2) substantially perpendicular to the first plane when the tool body is attached to the tool chassis via the number of snap fit assemblies (s1-s4), characterized in that the work tool comprises a top cover attachable to the tool body through releasable attachment means (17, 17'), and wherein the top cover prevents access to at least one snap fit assembly (s1 - s4) of the number of snap fit assemblies (s1 - s4) when the top cover is attached to the tool body. - a tool chassis, - a number of tool support members (61, 62, 63) attached to the tool chassis and being configured to abut against a ground surface in a first plane during operation of the work tool, - a number of snap fit assemblies (s1-s4), and - a tool body attachable to the tool chassis via the number of snap fit assemblies (s1-s4), wherein the number of snap fit assemblies (s1-s4) is configured to allow movement of at least a portion the tool body relative to the tool chassis between a lowered and a raised position in directions (d1, d2) substantially perpendicular to the first plane when the tool body is attached to the tool chassis via the number of snap fit assemblies (s1-s4), characterized in that the work tool comprises a top cover attachable to the tool body through releasable attachment means (17, 17'), and wherein the top cover prevents access to at least one snap fit assembly (s1 - s4) of the number of snap fit assemblies (s1 - s4) when the top cover is attached to the tool body. wherein the number of snap fit assemblies (s1-s4) is configured to allow movement of at least a portion the tool body relative to the tool chassis between a lowered and a raised position in directions (d1, d2) substantially perpendicular to the first plane when the tool body is attached to the tool chassis via the number of snap fit assemblies (s1-s4), characterized in that the work tool comprises a top cover attachable to the tool body through releasable attachment means (17, 17'), and wherein the top cover prevents access to at least one snap fit assembly (s1 - s4) of the number of snap fit assemblies (s1 - s4) when the top cover is attached to the tool body.
A single immunoglobulin variable domain antibody that binds to CD28, comprising the CDR1 sequence of SEQ ID NO:636, the CDR2 sequence of SEQ ID NO:637, and the CDR3 sequence of SEQ ID NO:638.
A cleaning roller for cleaning a surface of a charge roller, the charge roller being configured to charge a surface of an image carrier of an image forming apparatus, the cleaning roller comprising: a non-conductive shaft member; and a non-conductive member surrounding at least a portion of an outer periphery of the shaft member, characterised in that the shaft member comprises: a non-conductive rolling part comprising a plastic material; and a support part provided at both ends of the rolling part in a shaft direction for supporting the rolling part, the support part comprising a metallic material. a non-conductive shaft member; and a non-conductive member surrounding at least a portion of an outer periphery of the shaft member, characterised in that the shaft member comprises: a non-conductive rolling part comprising a plastic material; and a support part provided at both ends of the rolling part in a shaft direction for supporting the rolling part, the support part comprising a metallic material. a non-conductive rolling part comprising a plastic material; and a support part provided at both ends of the rolling part in a shaft direction for supporting the rolling part, the support part comprising a metallic material.