mhurhangee/ep-ind-claims huggingface dataset:
Scanning probe microscopy device for mapping nanostructures on a sample surface of a sample, comprising a plurality probes for scanning the sample surface, and one or more motion actuators for enabling motion of the probes relative to the sample, wherein each of said plurality of probes comprises a probing tip mounted on a cantilever arranged for bringing the probing tip in contact with the sampling surface for enabling the scanning, the device further comprising a plurality of Z-position detectors for determining a position of each probing tip along a Z-direction when the probing tip is in contact with the sample surface, wherein the Z-direction is a direction transverse to the sample surface, for enabling mapping of the nanostructures; wherein the plurality of probes are mounted on a plurality of heads, each head comprising one or more of said plurality of probes; wherein each of said heads is mounted on a support base associated with said head, each support base being arranged for individually moving its associated head relative to the sample; and wherein, for enabling said individual motion of the associated head, each support base comprises a plane actuator unit (60, 65) for enabling individual motion of each respective support base independent from other support bases, the plane actuator unit comprising at least one of said motion actuators for moving the head associated with the support base, by said motion of the support base, relative to the sample in at least one direction parallel to the sample surface, for simultaneous scanning of multiple remote sites on the sample surface by the plurality of heads, characterized in that the plane actuator unit is located at a first mounting position along said support base, said first mounting position being remote from a second mounting position, wherein the head associated with the support base is mounted on the second mounting position on the support base. wherein each of said heads is mounted on a support base associated with said head, each support base being arranged for individually moving its associated head relative to the sample; and wherein, for enabling said individual motion of the associated head, each support base comprises a plane actuator unit (60, 65) for enabling individual motion of each respective support base independent from other support bases, the plane actuator unit comprising at least one of said motion actuators for moving the head associated with the support base, by said motion of the support base, relative to the sample in at least one direction parallel to the sample surface, for simultaneous scanning of multiple remote sites on the sample surface by the plurality of heads, characterized in that the plane actuator unit is located at a first mounting position along said support base, said first mounting position being remote from a second mounting position, wherein the head associated with the support base is mounted on the second mounting position on the support base.
Mobile electronic device for attachment to a human body part, comprising an electronic housing with electronic components arranged therein, wherein a flexible fastening arm is arranged on the electronic housing on each of two oppositely oriented wall sections, which extend away from the electronic housing and are flexibly deformable between a fastening position fastening to the body part and a release position releasing the body part, characterised in that the fastening arms are prestressed in the release position in the direction of the fastening position with a prestressing force.
A method for wireless communications at a user equipment, UE, comprising: identifying a first narrowband reference signal associated with an anchor carrier, wherein a scrambling of the first narrowband reference signal is based at least in part on a first scrambling initialization; transmitting a capability message indicating a capability to support a scrambling of a second narrowband reference signal based at least in part on a second scrambling initialization that is different than the first scrambling initialization; receiving, based at least in part on the capability message, a carrier configuration for a non-anchor carrier associated with the second narrowband reference signal, wherein the carrier configuration for the non-anchor carrier indicates whether the scrambling of the second narrowband reference signal is based at least in part on the second scrambling initialization and wherein the first scrambling initialization is associated with a first periodicity and the second scrambling initialization is associated with a second periodicity, wherein the second periodicity is greater than the first periodicity; and communicating with a base station over the non-anchor carrier based at least in part on the second narrowband reference signal. identifying a first narrowband reference signal associated with an anchor carrier, wherein a scrambling of the first narrowband reference signal is based at least in part on a first scrambling initialization; transmitting a capability message indicating a capability to support a scrambling of a second narrowband reference signal based at least in part on a second scrambling initialization that is different than the first scrambling initialization; receiving, based at least in part on the capability message, a carrier configuration for a non-anchor carrier associated with the second narrowband reference signal, wherein the carrier configuration for the non-anchor carrier indicates whether the scrambling of the second narrowband reference signal is based at least in part on the second scrambling initialization and wherein the first scrambling initialization is associated with a first periodicity and the second scrambling initialization is associated with a second periodicity, wherein the second periodicity is greater than the first periodicity; and communicating with a base station over the non-anchor carrier based at least in part on the second narrowband reference signal.
A control device of an internal combustion engine, configured to switch an air-fuel ratio of in-cylinder gas from a first air-fuel ratio for normal operation, which is leaner than a stoichiometric ratio, to a second air-fuel ratio that is richer than the stoichiometric ratio, and is configured to carry out intake air restriction during a switching period from the start of the switching to the end thereof, wherein; the control device is configured such that, prior to the start of the switching, a main injection that results in complete combustion of injected fuel is performed at a main injection timing that is at or around a compression top dead center or before the compression top dead center; the control device is further configured such that, after the end of the switching, the main injection is performed at the main injection timing and a first after injection that results in incomplete combustion of injected fuel is performed at a first after injection timing that is later than the main injection timing; and the control device is further configured such that, during the switching period (tl-t2), the main injection is performed at the main injection timing and a second after injection that results in incomplete combustion of injected fuel is performed at a second after injection timing that is later than the main injection timing and is earlier than the first after injection timing; the control device is further configured such that, a fuel injection amount of the main injection after the end of the switching is made smaller than a fuel injection amount of the main injection prior to the start of the switching; the control device is further configured such that, during the switching period, the fuel injection amount of the main injection is reduced so as to gradually approach the amount after the end of the switching, and an amount of reduction in the fuel injection amount of the main injection is gradually reduced as the intake air restriction proceeds; and the control device is further configured such that, during the switching period, the amount of reduction at each computation time is determined based on a difference between an actual value and a target value of an intake air pressure and a difference between the fuel injection amount of the main injection after the end of the switching and the fuel injection amount of the main injection during the switching period, and the amount of reduction at each computation time is made larger as at least one of the difference between the actual value and the target value of the intake air pressure is larger and the difference between the fuel injection amount of the main injection after the end of the switching and the fuel injection amount of the main injection during the switching period is larger.
A rotational coupling device, comprising: a hub configured for coupling to a shaft for rotation with said shaft about an axis of rotation; a rotor supported on said hub and configured for rotation relative to said hub about said axis of rotation, said rotor defining a radially extending wall and a chamber on one side of said radially extending wall surrounding said hub, said chamber defining a sump containing a fluid; an armature supported on said hub for rotation therewith and disposed within said chamber, said armature axially spaced from said radially extending wall of said rotor; a first clutch plate disposed axially between said radially extending wall of said rotor and said armature, said first clutch plate coupled to said hub for rotation therewith, but axially movable relative to said hub; a second clutch plate disposed axially between said radially extending wall of said rotor and said armature, said second clutch plate coupled to said rotor for rotation therewith, but axially movable relative to said rotor; a field shell disposed about said hub on an opposite side of said radially extending wall of said rotor from said armature, said field shell housing a conductor therein; and, characterized by a first tube having a first end submerged in said fluid and extending through a first aperture in said armature, rotation of said armature drawing fluid through said first tube and onto said first and second clutch plates (36, 34). a hub configured for coupling to a shaft for rotation with said shaft about an axis of rotation; a rotor supported on said hub and configured for rotation relative to said hub about said axis of rotation, said rotor defining a radially extending wall and a chamber on one side of said radially extending wall surrounding said hub, said chamber defining a sump containing a fluid; an armature supported on said hub for rotation therewith and disposed within said chamber, said armature axially spaced from said radially extending wall of said rotor; a first clutch plate disposed axially between said radially extending wall of said rotor and said armature, said first clutch plate coupled to said hub for rotation therewith, but axially movable relative to said hub; a second clutch plate disposed axially between said radially extending wall of said rotor and said armature, said second clutch plate coupled to said rotor for rotation therewith, but axially movable relative to said rotor; a field shell disposed about said hub on an opposite side of said radially extending wall of said rotor from said armature, said field shell housing a conductor therein; and, characterized by a first tube having a first end submerged in said fluid and extending through a first aperture in said armature, rotation of said armature drawing fluid through said first tube and onto said first and second clutch plates (36, 34).
A medical electrical lead (21,121) comprising: an insulative lead body (23,123) having a distal end and a proximal end and an inner surface de- fining a lumen extending between the distal and proximal ends; a proximal connector (32,132) configured to couple the lead (21,121) to an implantable medical device, a rotatable portion (172,174) of the con-nector rotatable with respect to the lead body (23, 123); a composite conductor (31,131) comprising first and second conductors (52, 54) coupled to the rotatable portion and extending distally from the rotatable portion (172,174) through the lumen, an insulating layer electrically insulating the first and second conductors from one another; a composite helical electrode (30,130) electrically coupled to the composite conductor (31,131); and an actuation member disposed in the lumen and coupled to the composite helical electrode (30,130) and the composite conductor (31,131), the outer surface of the actuation member configured to mechanically interact with an inner surface of the lead body such that rotating the rotatable portion (172,174) of the proximal connector (32,132) transmits torque through the composite conductor (31,131) to the actuation member and results in both rotational and linear motion of the composite helical electrode (30, 130), wherein the composite helical electrode includes a first electrode coupled to the first conductor and a second electrode coupled to the second conductor. an insulative lead body (23,123) having a distal end and a proximal end and an inner surface de- fining a lumen extending between the distal and proximal ends; a proximal connector (32,132) configured to couple the lead (21,121) to an implantable medical device, a rotatable portion (172,174) of the con-nector rotatable with respect to the lead body (23, 123); a composite conductor (31,131) comprising first and second conductors (52, 54) coupled to the rotatable portion and extending distally from the rotatable portion (172,174) through the lumen, an insulating layer electrically insulating the first and second conductors from one another; a composite helical electrode (30,130) electrically coupled to the composite conductor (31,131); and an actuation member disposed in the lumen and coupled to the composite helical electrode (30,130) and the composite conductor (31,131), the outer surface of the actuation member configured to mechanically interact with an inner surface of the lead body such that rotating the rotatable portion (172,174) of the proximal connector (32,132) transmits torque through the composite conductor (31,131) to the actuation member and results in both rotational and linear motion of the composite helical electrode (30, 130), wherein the composite helical electrode includes a first electrode coupled to the first conductor and a second electrode coupled to the second conductor.
A method of wireless communication by a wireless device, comprising: determining a number of symbols in a data field; distributing a first number of data bits to each encoder in a subset of encoders in a set of encoders, wherein each encoder in the subset of encoders is distributed the same first number of data bits; distributing a second number of data bits to a last encoder in the set of encoders; and transmitting data to a second wireless device, wherein the data is encoded based on the distributed first number of data bits to each encoder in the subset of encoders and the distributed second number of data bits to the last encoder in the set of encoders; characterized in that the set of encoders comprises N ES encoders, where N ES is an integer greater than 2, and the subset of encoders comprises N ES - 1 encoders, and further wherein the first number of data bits is different from the second number of data bits and wherein the first and second numbers of data bits are computed as functions of the determined number of symbols and of a Modulation and Coding Scheme, MCS, code rate. determining a number of symbols in a data field; distributing a first number of data bits to each encoder in a subset of encoders in a set of encoders, wherein each encoder in the subset of encoders is distributed the same first number of data bits; distributing a second number of data bits to a last encoder in the set of encoders; and transmitting data to a second wireless device, wherein the data is encoded based on the distributed first number of data bits to each encoder in the subset of encoders and the distributed second number of data bits to the last encoder in the set of encoders; characterized in that the set of encoders comprises N ES encoders, where N ES is an integer greater than 2, and the subset of encoders comprises N ES - 1 encoders, and further wherein the first number of data bits is different from the second number of data bits and wherein the first and second numbers of data bits are computed as functions of the determined number of symbols and of a Modulation and Coding Scheme, MCS, code rate.
A method of compressing a gas using a liquid, comprising: maintaining a first volume of liquid in a first high pressure chamber; maintaining a first volume of gas in a second high pressure chamber, wherein the first volume of gas is at a first pressure and said first high pressure chamber and said second high pressure chamber are fluidly connected through a high pressure pump; and forcing a pressurized gas into the first high pressure chamber having the first volume of liquid and simultaneously pumping, using the high pressure pump 710), at least a portion of the first volume of liquid in the first high pressure chamber to the second high pressure chamber, wherein the at least a portion of the first volume of liquid pumped into the second high pressure chamber compresses the first volume of gas in the second high pressure chamber to a second pressure greater than the first pressure. maintaining a first volume of liquid in a first high pressure chamber; maintaining a first volume of gas in a second high pressure chamber, wherein the first volume of gas is at a first pressure and said first high pressure chamber and said second high pressure chamber are fluidly connected through a high pressure pump; and forcing a pressurized gas into the first high pressure chamber having the first volume of liquid and simultaneously pumping, using the high pressure pump 710), at least a portion of the first volume of liquid in the first high pressure chamber to the second high pressure chamber, wherein the at least a portion of the first volume of liquid pumped into the second high pressure chamber compresses the first volume of gas in the second high pressure chamber to a second pressure greater than the first pressure.
An autonomous floor cleaning robot, comprising: a robot body defining a forward drive direction; a controller supported by the robot body; a fluid applicator connected to a reservoir within the robot body; a drive supporting the robot body and configured to maneuver the robot across a surface in response to commands from the controller; a pad holder disposed on an underside of the robot body and configured to retain a removable cleaning pad during operation of the cleaning robot; wherein the robot is configured to execute a first navigation behavior and a corresponding fluid application schedule including a straight motion pattern when following an obstacle and characterized by the robot being configured to execute a second navigation behavior and a corresponding fluid application schedule including movement patterns that include a back-and-forth scrubbing motion. a robot body defining a forward drive direction; a controller supported by the robot body; a fluid applicator connected to a reservoir within the robot body; a drive supporting the robot body and configured to maneuver the robot across a surface in response to commands from the controller; a pad holder disposed on an underside of the robot body and configured to retain a removable cleaning pad during operation of the cleaning robot; wherein the robot is configured to execute a first navigation behavior and a corresponding fluid application schedule including a straight motion pattern when following an obstacle and characterized by the robot being configured to execute a second navigation behavior and a corresponding fluid application schedule including movement patterns that include a back-and-forth scrubbing motion.
Side frame for a drawer, having a support rail on which a horizontal support web for a bottom and a vertical wall section are formed, to which vertical wall section at least one adapter (3, 4) is fixed, to which a cover (5, 6) and/or a wall element can be fixed, wherein adjacent to the at least one adapter (3,4) a guide tab (12, 13, 32) is arranged on the vertical wall section, which covers at least part of an edge of the adapter (3, 4) and the guide tab (12, 13) is integrally formed on the vertical wall section or is integrally formed on the adapter (3, 4) and dips into a recess in the vertical wall section, wherein the guide tab (12, 13, 32) protrudes obliquely from a plane formed by the vertical wall section and the bottom can be moved along the guide tab (12, 13, 32) so that one edge of the bottom lifts slightly from the vertical wall section on the support rail and can be moved toward the adapter (3, 4), characterized in that one end of the guide tab (12, 13) is aligned substantially flush with a surface of the adapter (3, 4) facing the bottom.
A silicone represented by the following formula: wherein R 1 is a group represented by the following formula: wherein n is an integer of 2 to 8, and R 4 is a methyl group or a hydrogen atom; "a" is an integer of 1 to 500; b is an integer of 1 to 100, provided that a+b is 50 to 600, the siloxane units in the aforesaid parentheses may be bonded in a block or at random; R 2 is, independently of each other, a substituted or unsubstituted monovalent hydrocarbon group having 1 to 10 carbon atoms; R 3 is, independently of each other, an alkyl group having 1 to 6 carbon atoms; A 1 is a group represented by the following formula or: wherein R is a hydrogen atom or a methyl group; B 1 is a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, an aralkyl group having 7 to 12 carbon atoms, or an acyl group having 1 to 6 carbon atoms; m is an integer of 0 to 8; p is an integer of 1 to 10; q is an integer of 1 to 50; and the polyether units in the parentheses are bonded in the above-described order. wherein R 1 is a group represented by the following formula: wherein n is an integer of 2 to 8, and R 4 is a methyl group or a hydrogen atom; "a" is an integer of 1 to 500; b is an integer of 1 to 100, provided that a+b is 50 to 600, the siloxane units in the aforesaid parentheses may be bonded in a block or at random; R 2 is, independently of each other, a substituted or unsubstituted monovalent hydrocarbon group having 1 to 10 carbon atoms; R 3 is, independently of each other, an alkyl group having 1 to 6 carbon atoms; A 1 is a group represented by the following formula or: wherein R is a hydrogen atom or a methyl group; B 1 is a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, an aralkyl group having 7 to 12 carbon atoms, or an acyl group having 1 to 6 carbon atoms; m is an integer of 0 to 8; p is an integer of 1 to 10; q is an integer of 1 to 50; and the polyether units in the parentheses are bonded in the above-described order.
A therapeutic delivery system comprising: an intraluminal patch comprising at least one adhesive region and at least one therapeutic reservoir region that contains a drug, the patch sized to fit within a blood vessel of a human being, the adhesive region on an exposed surface of the patch; an expandable delivery device having an expandable balloon, the intraluminal patch being disposed over the expandable balloon; the therapeutic delivery system being characterized by further comprising: a structural support layer that supports the adhesive region and the therapeutic reservoir region. an intraluminal patch comprising at least one adhesive region and at least one therapeutic reservoir region that contains a drug, the patch sized to fit within a blood vessel of a human being, the adhesive region on an exposed surface of the patch; an expandable delivery device having an expandable balloon, the intraluminal patch being disposed over the expandable balloon; a structural support layer that supports the adhesive region and the therapeutic reservoir region.