mhurhangee/patent-ind-claim-en huggingface dataset:
Heat exchanger arrangement comprising: at least one heat exchanger including at least one substantially horizontal manifold forming an upper side of the at least one heat exchanger , the at least one manifold having lateral end portions and a support structure including a main portion comprising, at least partially, a metallic material, and manifold support portions associated to respective lateral end portions of the at least one manifold ; wherein the manifold support portions are made at least partially from a non-metallic material and configured to receive the lateral end portions of the at least one manifold for preventing the at least one manifold from contacting any metallic portions of the support structure ; wherein the manifold support portions of the support structure are formed as non-metallic projections located at the inner sides of opposing posts of the support structure at a vertical position corresponding to the vertical position of the at least one manifold and the lateral end portions of the at least one manifold are supported on the respective non-metallic projections ; and characterised in that the at least one heat exchanger is in contact with the support structure only via the lateral end portions of the at least one manifold in a suspended configuration in which the at least one heat exchanger is not supported from below. at least one heat exchanger including at least one substantially horizontal manifold forming an upper side of the at least one heat exchanger , the at least one manifold having lateral end portions and a support structure including a main portion comprising, at least partially, a metallic material, and manifold support portions associated to respective lateral end portions of the at least one manifold ; a main portion comprising, at least partially, a metallic material, and manifold support portions associated to respective lateral end portions of the at least one manifold ; wherein the manifold support portions are made at least partially from a non-metallic material and configured to receive the lateral end portions of the at least one manifold for preventing the at least one manifold from contacting any metallic portions of the support structure ; wherein the manifold support portions of the support structure are formed as non-metallic projections located at the inner sides of opposing posts of the support structure at a vertical position corresponding to the vertical position of the at least one manifold and the lateral end portions of the at least one manifold are supported on the respective non-metallic projections ; and characterised in that the at least one heat exchanger is in contact with the support structure only via the lateral end portions of the at least one manifold in a suspended configuration in which the at least one heat exchanger is not supported from below.
A nitrogen-containing heterocyclic compound represented by formula (I): wherein R 1 represents C 1-10 alkyl which may be substituted with C 1-10 alkoxy, the moiety represented by in formula (I) represents R 2A represents formula (IV): wherein R 7 represents C 1-10 alkanoyl, and R 3 represents C 1-10 alkyl substituted with fluorine atom(s) or a pharmaceutically acceptable salt thereof. wherein R 1 represents C 1-10 alkyl which may be substituted with C 1-10 alkoxy, the moiety represented by in formula (I) represents R 2A represents formula (IV): wherein R 7 represents C 1-10 alkanoyl, and R 3 represents C 1-10 alkyl substituted with fluorine atom(s) or a pharmaceutically acceptable salt thereof.
An optical element , comprising: an optical surface comprising a ceramic material; a coating comprising a bifunctional molecule arranged on the optical surface , the bifunctional molecule comprising a first functional group and a second functional group , the first functional group forming a covalent bond to the ceramic material of the optical surface , and the second functional group being a phenyl group; and a carbon-containing material non-covalently bonded by pi-pi stacking to the phenyl group of the bifunctional molecule of the coating. an optical surface comprising a ceramic material; a coating comprising a bifunctional molecule arranged on the optical surface , the bifunctional molecule comprising a first functional group and a second functional group , the first functional group forming a covalent bond to the ceramic material of the optical surface , and the second functional group being a phenyl group; and a carbon-containing material non-covalently bonded by pi-pi stacking to the phenyl group of the bifunctional molecule of the coating.
A brush assembly comprising: a cushion pad having a compressibility at 25% deflection within the range of 6.9 kPa (1 psi) to 2413 kPa (350 psi); a brush attached to the cushion pad, wherein the brush comprises: a brush base, and bristles , the bristles comprising moldable polymeric material and abrasive particle additives. a cushion pad having a compressibility at 25% deflection within the range of 6.9 kPa (1 psi) to 2413 kPa (350 psi); a brush attached to the cushion pad, wherein the brush comprises: a brush base, and bristles , the bristles comprising moldable polymeric material and abrasive particle additives.
A process for applying a transfer material onto the surface of a three-dimensional article comprising: providing at least one three-dimensional article which has a surface ; providing a deposition device ; providing a continuous transfer component with initial dimensions, a surface, and an initial configuration, wherein the transfer component is arranged to receive two or more transfer material deposits for application to different articles; depositing a material onto a portion of the surface of said continuous transfer component with said deposition device to form a transfer material on said transfer component ; modifying the initial dimensions and/or the initial configuration of the portion of said transfer component with said transfer material thereon to conform the portion of the transfer component with said transfer material thereon to at least a portion of the surface of said three-dimensional article; said process characterized in that said modifying uses a mechanism in which a portion of the transfer component spans between spaced apart constraining components that constrain the transfer component in one or more directions, and the article is pushed into the span of the transfer component or the span of the transfer component is pulled onto the article ; and transferring the transfer material from said transfer component onto the surface of said article . providing at least one three-dimensional article which has a surface ; providing a deposition device ; providing a continuous transfer component with initial dimensions, a surface, and an initial configuration, wherein the transfer component is arranged to receive two or more transfer material deposits for application to different articles; depositing a material onto a portion of the surface of said continuous transfer component with said deposition device to form a transfer material on said transfer component ; modifying the initial dimensions and/or the initial configuration of the portion of said transfer component with said transfer material thereon to conform the portion of the transfer component with said transfer material thereon to at least a portion of the surface of said three-dimensional article; said process characterized in that said modifying uses a mechanism in which a portion of the transfer component spans between spaced apart constraining components that constrain the transfer component in one or more directions, and the article is pushed into the span of the transfer component or the span of the transfer component is pulled onto the article ; and transferring the transfer material from said transfer component onto the surface of said article .
A computer-implemented fingerprint identification method, applied to a terminal, comprising: displaying a specified application icon in a user interface, when the terminal is in a state of screen on and locked; in response to detecting a touch operation on the specified application icon, starting a number N of fingerprint sensors in the icon display area of the specified application icon when a plurality of fingerprint sensors are provided below a display screen of the terminal, wherein N is an integer greater than 1, and the area occupied by the N fingerprint sensors is larger than or equal to the icon display area; obtaining, by the N fingerprint sensors, fingerprint information corresponding to the touch operation; transmitting the fingerprint information to an application corresponding to the specified application icon; the application performing a safety authentication to the fingerprint information; and in response to determining that the fingerprint information passes the safety authentication, unlocking and the application entering an application display interface. displaying a specified application icon in a user interface, when the terminal is in a state of screen on and locked; in response to detecting a touch operation on the specified application icon, starting a number N of fingerprint sensors in the icon display area of the specified application icon when a plurality of fingerprint sensors are provided below a display screen of the terminal, wherein N is an integer greater than 1, and the area occupied by the N fingerprint sensors is larger than or equal to the icon display area; obtaining, by the N fingerprint sensors, fingerprint information corresponding to the touch operation; transmitting the fingerprint information to an application corresponding to the specified application icon; the application performing a safety authentication to the fingerprint information; and in response to determining that the fingerprint information passes the safety authentication, unlocking and the application entering an application display interface.
Method for operating an automation system , wherein the automation system has at least one controller and a plurality of field devices (5...8) that are connected to one another by means of a network for data communication, and wherein at least one first field device is provided with an operating unit , the method comprising: a) the first field device transmitting a request to the controller for a provision of data depending upon a predetermined or predeterminable operator input, wherein the transmission of the request via the network takes place with a pre-determined alarm, a pre-determined message or a pre-determined response code or with a predetermined code for a device variable, wherein the data in the automation system relates to functionalities lying outside the first field device, b) the controller transmitting data corresponding to the received request to the first field device , c) the first field device outputting an item of information corresponding to the received data on the operating unit . a) the first field device transmitting a request to the controller for a provision of data depending upon a predetermined or predeterminable operator input, wherein the transmission of the request via the network takes place with a pre-determined alarm, a pre-determined message or a pre-determined response code or with a predetermined code for a device variable, wherein the data in the automation system relates to functionalities lying outside the first field device, b) the controller transmitting data corresponding to the received request to the first field device , c) the first field device outputting an item of information corresponding to the received data on the operating unit .
- A half-round skip with a pusher bottom for transporting material, including, near its lateral closing wall opposite the pusher bottom, a hatch able to go from a first position in which it closes an opening for unloading material formed in the bottom of the skip to a second position in which it frees said opening allowing the material to be discharged by gravity, the hatch being mounted under the skip, and having an upper surface of the same concavity as the bottom of the skip against which it slides, characterised in that the hatch is able to slide along the longitudinal midline of the bottom of the skip.
A surgical navigation system comprising: a tracker configured to be attached to a patient; a localizer configured to cooperate with said tracker to generate localizer data associated with a target site on an anatomy of the patient with the target site defined by a virtual object (VB) associated with a virtual model (VM) of the anatomy; a vision device configured to generate 3-D surface-image data associated with the target site and surfaces surrounding the target site; a navigation computer coupled to said localizer and said vision device , wherein said navigation computer is configured to: combine said localizer data and said 3-D surface-image data into a common coordinate system; and evaluate said 3-D surface-image data and said localizer data in said common coordinate system to determine a region (R) to be avoided outside of the target site by merging said 3-D surface-image data and said localizer data to form merged data; and wherein the surgical navigation system is characterized in that said navigation computer is further configured to: select at least a portion of the merged data to define the region (R) to be avoided, the portion representing surfaces surrounding the target site that are outside of the target site. a tracker configured to be attached to a patient; a localizer configured to cooperate with said tracker to generate localizer data associated with a target site on an anatomy of the patient with the target site defined by a virtual object (VB) associated with a virtual model (VM) of the anatomy; a vision device configured to generate 3-D surface-image data associated with the target site and surfaces surrounding the target site; a navigation computer coupled to said localizer and said vision device , wherein said navigation computer is configured to: combine said localizer data and said 3-D surface-image data into a common coordinate system; and evaluate said 3-D surface-image data and said localizer data in said common coordinate system to determine a region (R) to be avoided outside of the target site by merging said 3-D surface-image data and said localizer data to form merged data; and wherein the surgical navigation system is characterized in that said navigation computer is further configured to: select at least a portion of the merged data to define the region (R) to be avoided, the portion representing surfaces surrounding the target site that are outside of the target site. combine said localizer data and said 3-D surface-image data into a common coordinate system; and evaluate said 3-D surface-image data and said localizer data in said common coordinate system to determine a region (R) to be avoided outside of the target site by merging said 3-D surface-image data and said localizer data to form merged data; and wherein the surgical navigation system is characterized in that said navigation computer is further configured to: select at least a portion of the merged data to define the region (R) to be avoided, the portion representing surfaces surrounding the target site that are outside of the target site.
Apparatus for controlling and regulating a movement of a system comprising a plurality of individual elements which cooperate kinematically, at least one thereof being able to be moved by a drive , comprising - a load calculating device for calculating one respective force vector for each of the individual elements depending on predetermined reference coordinates (X TCP , Y TCP , Z TCP , α TCP , β TCP , γ TCP ) continuously during the movement of the system, - a torque calculating device for calculating at least one compensating variable compensating the force vectors based on the reference coordinates (X TCP , Y TCP , Z TCP , α TCP , β TCP , γ TCP ) and the force vectors continuously during the movement, - a control unit for controlling a force-producing variable for the at least one drive depending on the reference coordinates (X TCP , Y TCP , Z TCP , α TCP , β TCP , γ TCP ) and the at least one compensating variable continuously during the movement and - a model of the control path of the system, wherein at least one ideal command variable for the drive or an ideal torque of the drive for monitoring an actual torque of the drive is able to be calculated by the model , wherein - the load calculating device uses a load model for calculating the respective force vector, in which a point, direction and amplitude of a dynamic introduction of force in one of the individual elements can be considered. - a load calculating device for calculating one respective force vector for each of the individual elements depending on predetermined reference coordinates (X TCP , Y TCP , Z TCP , α TCP , β TCP , γ TCP ) continuously during the movement of the system, - a torque calculating device for calculating at least one compensating variable compensating the force vectors based on the reference coordinates (X TCP , Y TCP , Z TCP , α TCP , β TCP , γ TCP ) and the force vectors continuously during the movement, - a control unit for controlling a force-producing variable for the at least one drive depending on the reference coordinates (X TCP , Y TCP , Z TCP , α TCP , β TCP , γ TCP ) and the at least one compensating variable continuously during the movement and - a model of the control path of the system, wherein at least one ideal command variable for the drive or an ideal torque of the drive for monitoring an actual torque of the drive is able to be calculated by the model , wherein - the load calculating device uses a load model for calculating the respective force vector, in which a point, direction and amplitude of a dynamic introduction of force in one of the individual elements can be considered.
A magnet particle separating device comprising: a plurality of induction magnets with magnetic fields for attracting magnetic particles; an induction magnet fixing part having induction magnet fixing holes into which the induction magnets are inserted for fixing the induction magnets ; and a body with which the induction magnet fixing part is combined, the body having entry holes along a height direction such that the entry holes correspond to array position of the induction magnets , and the body having a compartment wall for comparting one of the entry holes and an adjacent entry hole ; wherein the compartment wall comprises: an insertion hole formed along a longitudinal direction of the compartment wall , and a tube-fixing member inserted into the insertion hole , so as to protrude toward inside of the entry hole , wherein the tube-fixing member is configured to compress a tube (T) and to fix it to the body when the tube (T) is inserted into the entry hole . a plurality of induction magnets with magnetic fields for attracting magnetic particles; an induction magnet fixing part having induction magnet fixing holes into which the induction magnets are inserted for fixing the induction magnets ; and a body with which the induction magnet fixing part is combined, the body having entry holes along a height direction such that the entry holes correspond to array position of the induction magnets , and the body having a compartment wall for comparting one of the entry holes and an adjacent entry hole ; an insertion hole formed along a longitudinal direction of the compartment wall , and a tube-fixing member inserted into the insertion hole , so as to protrude toward inside of the entry hole , wherein the tube-fixing member is configured to compress a tube (T) and to fix it to the body when the tube (T) is inserted into the entry hole .
A method for producing hydrocarbons on a line of a hydrocarbon production installation comprising at least two devices adapted each for providing an estimate of the flow rate of a fluid in the line based on respective data, the devices including at least one metric counter , and the data respective to the provision of an estimate of the flow rate by the metric counter including a measurement done by at least one sensor of the metric counter on the fluid, wherein the method comprises, during the production: • determining (S10) the data respective to the provision of an estimate of the flow rate by the devices, and • a data reconciliation and validation (DVR) process (S20) involving the determined data, the reconciliation being conditioned by an at least substantial equality between the estimates of the flow rate of the fluid to be provided by each of the devices. • determining (S10) the data respective to the provision of an estimate of the flow rate by the devices, and • a data reconciliation and validation (DVR) process (S20) involving the determined data, the reconciliation being conditioned by an at least substantial equality between the estimates of the flow rate of the fluid to be provided by each of the devices.
A method of mapping speed of row units of a planter traveling through a field, comprising: displaying on a monitor screen an area of a field traveled by the planter; and, detecting a ground speed of each row unit of the planter; characterised in that the method further comprises graphically representing as a row speed map on the monitor screen the detected ground speed of each row unit on the displayed area of the field traveled by the planter . displaying on a monitor screen an area of a field traveled by the planter; and, detecting a ground speed of each row unit of the planter; characterised in that the method further comprises graphically representing as a row speed map on the monitor screen the detected ground speed of each row unit on the displayed area of the field traveled by the planter .
A vehicle lamp control apparatus in which sub lamps (RCL, LCL) provided on right and left sides of a vehicle (CAR) are controlled in accordance with running states of the vehicle (CAR), the apparatus comprising: a control unit (ECU) adapted to control the sub lamps (RCL, LCL) in a first condition based on a main information signal including a turn signal or a steering angle signal, and to control the sub lamps (RCL, LCL) in a second condition based on a sub information signal other than the main information signal, wherein a noticeability of the second condition is lower than a noticeability of the first condition, wherein the control unit is adapted to turn on one of the sub lamps (RCL, LCL) existing on a side of a traveling direction of the vehicle determined based on the main information signal in the first condition, and to turn on the other of the sub lamps (RCL, LCL) in the second condition, in a situation that the main information signal and sub information signal are input characterized in that the control unit (ECU) is adapted to turn on the sub lamps (RCL, LCL) at a first timing in the first condition, and to turn on the sub lamps (RCL, LCL) at a second timing which is more redundant than the first timing in the second condition. a control unit (ECU) adapted to control the sub lamps (RCL, LCL) in a first condition based on a main information signal including a turn signal or a steering angle signal, and to control the sub lamps (RCL, LCL) in a second condition based on a sub information signal other than the main information signal, wherein a noticeability of the second condition is lower than a noticeability of the first condition, wherein the control unit is adapted to turn on one of the sub lamps (RCL, LCL) existing on a side of a traveling direction of the vehicle determined based on the main information signal in the first condition, and to turn on the other of the sub lamps (RCL, LCL) in the second condition, in a situation that the main information signal and sub information signal are input characterized in that the control unit (ECU) is adapted to turn on the sub lamps (RCL, LCL) at a first timing in the first condition, and to turn on the sub lamps (RCL, LCL) at a second timing which is more redundant than the first timing in the second condition.